263 results

El-Nemo SE: identifying management objectives hierarchies and weightings for four key fisheries in South Eastern Australia

Project number: 2009-073
Project Status:
Completed
Budget expenditure: $51,685.88
Principal Investigator: Sarah M. Jennings
Organisation: University of Tasmania (UTAS)
Project start/end date: 26 Jul 2010 - 29 Dec 2010
Contact:
FRDC

Need

While this program will cover the South-Eastern Australia marine region (including State and Commonwealth waters from approximately the South Australia/ Western Australia border to approximately the New South Wales/ Queensland border), the outputs will contribute to developing and implementing relevant national plans and strategies such as the National Climate Change and Fisheries Action Plan (Draft), and the National Adaptation Research Plan for Marine Biodiversity and Resources.

Within the context of the SEAP, the outcomes of this project will be used to inform the need and priorities for additional social and economic research, and will inform subsequent analyses of management and adaptation strategies. It will also complement and inform the development of a vulnerability framework for use in the marine context in SEAP.

Objectives

1. To develop a clear understanding of key dimensions of social and economic risk in the fishing and aquaculture sectors in relation to climate change drivers.
2. To develop a practical method for conducting high-level fisheries sector risk assessments.
3. To conduct a high-level social and economic climate change related risk assessment for selected key fisheries and aquaculture sectors.
4. To identify key fisheries and aquaculture sectors that are most at risk (social and economic) due to climate change drivers.

El-Nemo SE: risk assessment of impacts of climate change for key species in South Eastern Australia

Project number: 2009-070
Project Status:
Completed
Budget expenditure: $140,163.66
Principal Investigator: Gretta T. Pecl
Organisation: University of Tasmania (UTAS)
Project start/end date: 21 Dec 2009 - 30 Oct 2010
Contact:
FRDC

Need

Climate change is expected to alter physical and chemical oceanographic conditions and processes around Australia, yet the influence this could have on the distributions of various marine species is still relatively unknown. The marine waters of South Eastern Australia are expected to be significantly affected by climate change, experiencing the greatest climate-driven changes in the southern hemisphere over the next century. The impacts and opportunities that will result from these changes will depend, in part, on how well the fisheries and aquaculture sectors and their managers respond to these challenges. A sound risk-based approach to informing both management arrangements and decisions by the sectors will be critical for optimizing outcomes. It is essential that the potential impacts of climate change on key resources are assessed and effectively communicated to support the development of policies that allow industry to minimize adverse effects by optimizing adaptation responses (e.g. by providing flexible management arrangements) and seizing opportunities as they arise (e.g. for species where productivity increases).

This project has been identified as a clear and immediate need through the SEAP Plan (draft) and also establishes a platform of baseline information from which we can start to address several key priority areas identified in the Draft Marine National Adaptation Research Plan (NARP). Priorities identified in the draft NARP include 1/ Which farmed species in which locations are most likely to be impacted as a result of climate change?, and for fisheries 2/ Which fishery stocks, in which locations, are most likely to change as a result of climate change? What will those changes be (e.g., in distribution, productivity) and when are they likely to appear under alternative climate change scenarios? Clearly, comprehensive and synthesised information on the sensitivities and tolerances of key species are the first steps required to address these priorities.

Objectives

1. Identify the life history stages, habitats and aquaculture systems of key species that may be impacted by climate change
2. Identify the physical and chemical parameters that may determine the potential impacts of climate change on key species
3. Conduct a preliminary risk assessment of each key species to the potential impacts of climate change
4. Highlight what additional information on the tolerances and sensitivities will be needed to develop bioclimatic envelope models for key species

Tactical Research Fund: Nutrient and phytoplankton data from Storm Bay to support sustainable resource planning

Project number: 2009-067
Project Status:
Completed
Budget expenditure: $44,143.00
Principal Investigator: Christine D. Crawford
Organisation: University of Tasmania (UTAS)
Project start/end date: 31 Jan 2010 - 6 Apr 2011
Contact:
FRDC

Need

Knowledge of changing environmental conditions and productivity as a result of climate change is essential for adaptive management. In addition to direct applicability to fisheries and aquaculture in southern Tasmania, this information will have numerous important applications to other industries and stakeholders in the broader catchment.

CSIRO and TAFI have established a program (INFORMD- Inshore network for observation and regional management: Derwent-Huon) to guide multiple use coastal zone development and management. Storm Bay is an integral component of the INFORMD region and a priority is to understand both the short term (climate variability) and long-term (climate change) drivers of productivity in the region and link these to production of fisheries and aquaculture. CSIRO have a project investigating novel observing technologies (NOTe) to characterize the Derwent to shelf environment and TAFI will fund a charter vessel to monthly sample water column environmental variables, and support the CSIRO observing system. Thus an opportunity exists to obtain nutrient and productivity data in the Storm Bay region in a very cost-effective manner by collaborating with the existing research program.

Important background information is that the East Australian Current is predicted to penetrate further south causing significant warming and decreased productivity. Previous work (Harris et al 1991) showed that the nutrient status of waters clearly indicated the influence of the EAC, and primary producers indicated the productivity of the region, demonstrating the potential for Storm Bay to act as an indicator of productivity for Southern and Eastern Tasmania. Such information is important to understanding changes in fisheries and aquaculture production and, as a consequence, to assist with developing climate change adaptive management strategies.

This project also provides an opportunity for FRDC to invest in a project that will have significant influence on multiple use management in Australia.

Objectives

1. To provide information on the effects of a changing climate on water quality in Storm Bay and associated potential impacts on fisheries and aquaculture.
2. To collect nutrient and algal data from a targeted suite of sampling sites in Storm Bay to support sustainable development of the aquaculture industry.

Final report

ISBN: 978-1-86295-630-8
Author: Christine Crawford
Final Report • 2011-11-23 • 3.02 MB
2009-067-DLD.pdf

Summary

This project has provided preliminary data on environmental conditions in Storm Bay that is assisting managers and marine industries to better understand effects of climate change and climate variability on fisheries and aquaculture in the region, including changing currents and primary productivity. This information is being used to inform the development of climate change adaptive management strategies for commercial and recreational fisheries and for the potential expansion of salmon aquaculture into Storm Bay. The environmental characterisation of Storm Bay is also supporting planning in the region, by providing baseline data and data for projects modelling the bay’s water circulation and ecosystem dynamics. This information will support the development of multiple use management plans for the region.

Keywords: Climate variability, Storm Bay, water quality, productivity, offshore salmon aquaculture

Final Report • 2011-11-23 • 3.02 MB
2009-067-DLD.pdf

Summary

This project has provided preliminary data on environmental conditions in Storm Bay that is assisting managers and marine industries to better understand effects of climate change and climate variability on fisheries and aquaculture in the region, including changing currents and primary productivity. This information is being used to inform the development of climate change adaptive management strategies for commercial and recreational fisheries and for the potential expansion of salmon aquaculture into Storm Bay. The environmental characterisation of Storm Bay is also supporting planning in the region, by providing baseline data and data for projects modelling the bay’s water circulation and ecosystem dynamics. This information will support the development of multiple use management plans for the region.

Keywords: Climate variability, Storm Bay, water quality, productivity, offshore salmon aquaculture

Final Report • 2011-11-23 • 3.02 MB
2009-067-DLD.pdf

Summary

This project has provided preliminary data on environmental conditions in Storm Bay that is assisting managers and marine industries to better understand effects of climate change and climate variability on fisheries and aquaculture in the region, including changing currents and primary productivity. This information is being used to inform the development of climate change adaptive management strategies for commercial and recreational fisheries and for the potential expansion of salmon aquaculture into Storm Bay. The environmental characterisation of Storm Bay is also supporting planning in the region, by providing baseline data and data for projects modelling the bay’s water circulation and ecosystem dynamics. This information will support the development of multiple use management plans for the region.

Keywords: Climate variability, Storm Bay, water quality, productivity, offshore salmon aquaculture

Final Report • 2011-11-23 • 3.02 MB
2009-067-DLD.pdf

Summary

This project has provided preliminary data on environmental conditions in Storm Bay that is assisting managers and marine industries to better understand effects of climate change and climate variability on fisheries and aquaculture in the region, including changing currents and primary productivity. This information is being used to inform the development of climate change adaptive management strategies for commercial and recreational fisheries and for the potential expansion of salmon aquaculture into Storm Bay. The environmental characterisation of Storm Bay is also supporting planning in the region, by providing baseline data and data for projects modelling the bay’s water circulation and ecosystem dynamics. This information will support the development of multiple use management plans for the region.

Keywords: Climate variability, Storm Bay, water quality, productivity, offshore salmon aquaculture

Final Report • 2011-11-23 • 3.02 MB
2009-067-DLD.pdf

Summary

This project has provided preliminary data on environmental conditions in Storm Bay that is assisting managers and marine industries to better understand effects of climate change and climate variability on fisheries and aquaculture in the region, including changing currents and primary productivity. This information is being used to inform the development of climate change adaptive management strategies for commercial and recreational fisheries and for the potential expansion of salmon aquaculture into Storm Bay. The environmental characterisation of Storm Bay is also supporting planning in the region, by providing baseline data and data for projects modelling the bay’s water circulation and ecosystem dynamics. This information will support the development of multiple use management plans for the region.

Keywords: Climate variability, Storm Bay, water quality, productivity, offshore salmon aquaculture

Final Report • 2011-11-23 • 3.02 MB
2009-067-DLD.pdf

Summary

This project has provided preliminary data on environmental conditions in Storm Bay that is assisting managers and marine industries to better understand effects of climate change and climate variability on fisheries and aquaculture in the region, including changing currents and primary productivity. This information is being used to inform the development of climate change adaptive management strategies for commercial and recreational fisheries and for the potential expansion of salmon aquaculture into Storm Bay. The environmental characterisation of Storm Bay is also supporting planning in the region, by providing baseline data and data for projects modelling the bay’s water circulation and ecosystem dynamics. This information will support the development of multiple use management plans for the region.

Keywords: Climate variability, Storm Bay, water quality, productivity, offshore salmon aquaculture

Final Report • 2011-11-23 • 3.02 MB
2009-067-DLD.pdf

Summary

This project has provided preliminary data on environmental conditions in Storm Bay that is assisting managers and marine industries to better understand effects of climate change and climate variability on fisheries and aquaculture in the region, including changing currents and primary productivity. This information is being used to inform the development of climate change adaptive management strategies for commercial and recreational fisheries and for the potential expansion of salmon aquaculture into Storm Bay. The environmental characterisation of Storm Bay is also supporting planning in the region, by providing baseline data and data for projects modelling the bay’s water circulation and ecosystem dynamics. This information will support the development of multiple use management plans for the region.

Keywords: Climate variability, Storm Bay, water quality, productivity, offshore salmon aquaculture

Final Report • 2011-11-23 • 3.02 MB
2009-067-DLD.pdf

Summary

This project has provided preliminary data on environmental conditions in Storm Bay that is assisting managers and marine industries to better understand effects of climate change and climate variability on fisheries and aquaculture in the region, including changing currents and primary productivity. This information is being used to inform the development of climate change adaptive management strategies for commercial and recreational fisheries and for the potential expansion of salmon aquaculture into Storm Bay. The environmental characterisation of Storm Bay is also supporting planning in the region, by providing baseline data and data for projects modelling the bay’s water circulation and ecosystem dynamics. This information will support the development of multiple use management plans for the region.

Keywords: Climate variability, Storm Bay, water quality, productivity, offshore salmon aquaculture

Final Report • 2011-11-23 • 3.02 MB
2009-067-DLD.pdf

Summary

This project has provided preliminary data on environmental conditions in Storm Bay that is assisting managers and marine industries to better understand effects of climate change and climate variability on fisheries and aquaculture in the region, including changing currents and primary productivity. This information is being used to inform the development of climate change adaptive management strategies for commercial and recreational fisheries and for the potential expansion of salmon aquaculture into Storm Bay. The environmental characterisation of Storm Bay is also supporting planning in the region, by providing baseline data and data for projects modelling the bay’s water circulation and ecosystem dynamics. This information will support the development of multiple use management plans for the region.

Keywords: Climate variability, Storm Bay, water quality, productivity, offshore salmon aquaculture

Final Report • 2011-11-23 • 3.02 MB
2009-067-DLD.pdf

Summary

This project has provided preliminary data on environmental conditions in Storm Bay that is assisting managers and marine industries to better understand effects of climate change and climate variability on fisheries and aquaculture in the region, including changing currents and primary productivity. This information is being used to inform the development of climate change adaptive management strategies for commercial and recreational fisheries and for the potential expansion of salmon aquaculture into Storm Bay. The environmental characterisation of Storm Bay is also supporting planning in the region, by providing baseline data and data for projects modelling the bay’s water circulation and ecosystem dynamics. This information will support the development of multiple use management plans for the region.

Keywords: Climate variability, Storm Bay, water quality, productivity, offshore salmon aquaculture

Final Report • 2011-11-23 • 3.02 MB
2009-067-DLD.pdf

Summary

This project has provided preliminary data on environmental conditions in Storm Bay that is assisting managers and marine industries to better understand effects of climate change and climate variability on fisheries and aquaculture in the region, including changing currents and primary productivity. This information is being used to inform the development of climate change adaptive management strategies for commercial and recreational fisheries and for the potential expansion of salmon aquaculture into Storm Bay. The environmental characterisation of Storm Bay is also supporting planning in the region, by providing baseline data and data for projects modelling the bay’s water circulation and ecosystem dynamics. This information will support the development of multiple use management plans for the region.

Keywords: Climate variability, Storm Bay, water quality, productivity, offshore salmon aquaculture

Final Report • 2011-11-23 • 3.02 MB
2009-067-DLD.pdf

Summary

This project has provided preliminary data on environmental conditions in Storm Bay that is assisting managers and marine industries to better understand effects of climate change and climate variability on fisheries and aquaculture in the region, including changing currents and primary productivity. This information is being used to inform the development of climate change adaptive management strategies for commercial and recreational fisheries and for the potential expansion of salmon aquaculture into Storm Bay. The environmental characterisation of Storm Bay is also supporting planning in the region, by providing baseline data and data for projects modelling the bay’s water circulation and ecosystem dynamics. This information will support the development of multiple use management plans for the region.

Keywords: Climate variability, Storm Bay, water quality, productivity, offshore salmon aquaculture

Final Report • 2011-11-23 • 3.02 MB
2009-067-DLD.pdf

Summary

This project has provided preliminary data on environmental conditions in Storm Bay that is assisting managers and marine industries to better understand effects of climate change and climate variability on fisheries and aquaculture in the region, including changing currents and primary productivity. This information is being used to inform the development of climate change adaptive management strategies for commercial and recreational fisheries and for the potential expansion of salmon aquaculture into Storm Bay. The environmental characterisation of Storm Bay is also supporting planning in the region, by providing baseline data and data for projects modelling the bay’s water circulation and ecosystem dynamics. This information will support the development of multiple use management plans for the region.

Keywords: Climate variability, Storm Bay, water quality, productivity, offshore salmon aquaculture

Final Report • 2011-11-23 • 3.02 MB
2009-067-DLD.pdf

Summary

This project has provided preliminary data on environmental conditions in Storm Bay that is assisting managers and marine industries to better understand effects of climate change and climate variability on fisheries and aquaculture in the region, including changing currents and primary productivity. This information is being used to inform the development of climate change adaptive management strategies for commercial and recreational fisheries and for the potential expansion of salmon aquaculture into Storm Bay. The environmental characterisation of Storm Bay is also supporting planning in the region, by providing baseline data and data for projects modelling the bay’s water circulation and ecosystem dynamics. This information will support the development of multiple use management plans for the region.

Keywords: Climate variability, Storm Bay, water quality, productivity, offshore salmon aquaculture

Final Report • 2011-11-23 • 3.02 MB
2009-067-DLD.pdf

Summary

This project has provided preliminary data on environmental conditions in Storm Bay that is assisting managers and marine industries to better understand effects of climate change and climate variability on fisheries and aquaculture in the region, including changing currents and primary productivity. This information is being used to inform the development of climate change adaptive management strategies for commercial and recreational fisheries and for the potential expansion of salmon aquaculture into Storm Bay. The environmental characterisation of Storm Bay is also supporting planning in the region, by providing baseline data and data for projects modelling the bay’s water circulation and ecosystem dynamics. This information will support the development of multiple use management plans for the region.

Keywords: Climate variability, Storm Bay, water quality, productivity, offshore salmon aquaculture

Final Report • 2011-11-23 • 3.02 MB
2009-067-DLD.pdf

Summary

This project has provided preliminary data on environmental conditions in Storm Bay that is assisting managers and marine industries to better understand effects of climate change and climate variability on fisheries and aquaculture in the region, including changing currents and primary productivity. This information is being used to inform the development of climate change adaptive management strategies for commercial and recreational fisheries and for the potential expansion of salmon aquaculture into Storm Bay. The environmental characterisation of Storm Bay is also supporting planning in the region, by providing baseline data and data for projects modelling the bay’s water circulation and ecosystem dynamics. This information will support the development of multiple use management plans for the region.

Keywords: Climate variability, Storm Bay, water quality, productivity, offshore salmon aquaculture

Final Report • 2011-11-23 • 3.02 MB
2009-067-DLD.pdf

Summary

This project has provided preliminary data on environmental conditions in Storm Bay that is assisting managers and marine industries to better understand effects of climate change and climate variability on fisheries and aquaculture in the region, including changing currents and primary productivity. This information is being used to inform the development of climate change adaptive management strategies for commercial and recreational fisheries and for the potential expansion of salmon aquaculture into Storm Bay. The environmental characterisation of Storm Bay is also supporting planning in the region, by providing baseline data and data for projects modelling the bay’s water circulation and ecosystem dynamics. This information will support the development of multiple use management plans for the region.

Keywords: Climate variability, Storm Bay, water quality, productivity, offshore salmon aquaculture

Final Report • 2011-11-23 • 3.02 MB
2009-067-DLD.pdf

Summary

This project has provided preliminary data on environmental conditions in Storm Bay that is assisting managers and marine industries to better understand effects of climate change and climate variability on fisheries and aquaculture in the region, including changing currents and primary productivity. This information is being used to inform the development of climate change adaptive management strategies for commercial and recreational fisheries and for the potential expansion of salmon aquaculture into Storm Bay. The environmental characterisation of Storm Bay is also supporting planning in the region, by providing baseline data and data for projects modelling the bay’s water circulation and ecosystem dynamics. This information will support the development of multiple use management plans for the region.

Keywords: Climate variability, Storm Bay, water quality, productivity, offshore salmon aquaculture

Final Report • 2011-11-23 • 3.02 MB
2009-067-DLD.pdf

Summary

This project has provided preliminary data on environmental conditions in Storm Bay that is assisting managers and marine industries to better understand effects of climate change and climate variability on fisheries and aquaculture in the region, including changing currents and primary productivity. This information is being used to inform the development of climate change adaptive management strategies for commercial and recreational fisheries and for the potential expansion of salmon aquaculture into Storm Bay. The environmental characterisation of Storm Bay is also supporting planning in the region, by providing baseline data and data for projects modelling the bay’s water circulation and ecosystem dynamics. This information will support the development of multiple use management plans for the region.

Keywords: Climate variability, Storm Bay, water quality, productivity, offshore salmon aquaculture

Final Report • 2011-11-23 • 3.02 MB
2009-067-DLD.pdf

Summary

This project has provided preliminary data on environmental conditions in Storm Bay that is assisting managers and marine industries to better understand effects of climate change and climate variability on fisheries and aquaculture in the region, including changing currents and primary productivity. This information is being used to inform the development of climate change adaptive management strategies for commercial and recreational fisheries and for the potential expansion of salmon aquaculture into Storm Bay. The environmental characterisation of Storm Bay is also supporting planning in the region, by providing baseline data and data for projects modelling the bay’s water circulation and ecosystem dynamics. This information will support the development of multiple use management plans for the region.

Keywords: Climate variability, Storm Bay, water quality, productivity, offshore salmon aquaculture

Tactical Research Fund: managing inshore stocks of southern rock lobster for a sustainable fishery

Project number: 2009-058
Project Status:
Completed
Budget expenditure: $75,000.00
Principal Investigator: Bridget Green
Organisation: University of Tasmania (UTAS)
Project start/end date: 29 Nov 2009 - 14 May 2011
Contact:
FRDC

Need

There is clearly a concern in the Tasmanian lobster industry about the status of inshore component of the stock. Catch has declined in a number of areas, despite improvements in catch rates. In the Northeast, catch is at record lows, but CPUE has remained stable, which is a possible indicator of hyper-stability or false stability. The apparent stability in catch rates occurs because aggregations containing a major proportion of the population are fished down, as the fleet moves from one area of good catch rates to the next, resulting in a serial depletion of the aggregations, which is masked by the apparent stability in the fishing block. This can result in a very sudden decline in biomass once the entire block is depleted, posing a serious and immediate risk to the inshore component of the stock. There are two potential sources of this problem. Firstly, the scale of the current assessment model, of eight inshore areas (64m) and three offshore areas (>64m) is not be fine enough to detect localised changes in the CPUE or biomass. Secondly there are changes in fishing practices that have increased effort on inshore stocks, and it is unclear whether the extra effort in these practices is adequately recorded in estimates of CPUE. There has been a recent increase in potting effort, commonly referred to as double night fishing, whereby fishers set and haul their pots twice a night, compared to the standard practice of emptying pots once at dusk and/or once during the day. Currently we have no data on the composition of the catch in double night shots, and what proportion of captured lobsters are handled and released, and in fact what consequence this handling has on the overall health of the fishery.

Objectives

1. Determine the extent of declines in the inshore stock by changing the current stock assessment model to assess stocks at a finer scale (&lt
30m and &gt
30m).
2. Assess whether increased effort in double night shots is adequately recorded in estimates of CPUE
include the differences in catch composition, size structure and the effects of handling on growth in assessments.
3. Assess the cost-effectiveness of double night fishing and compare short and long-term benefits.
4. Develop a management strategy evaluation, presenting options based on the results of the study.

SCRC: Understanding Yellowtail Kingfish

Project number: 2008-903.30
Project Status:
Completed
Budget expenditure: $0.00
Principal Investigator: Trent D'Antignana
Organisation: University of Tasmania (UTAS)
Project start/end date: 31 Mar 2009 - 31 Aug 2011
Contact:
FRDC

Need

Through existing farming practices it is apparent that there are several factors which may be limiting production and ultimately revenue.

Firstly, there is a need to identify an “ideal production strategy” to achieve forecast production levels. As temperature significantly affects YTK growth, feed conversion ratios and health, it is essential that the relationship between growth and temperature is investigated in fish of various sizes. This information will enable CST to make informed decisions on size and time of stocking YTK into sea cages. It is anticipated that this will improve production through shortening the production cycle and will reduce the standing biomass in the water, ultimately increasing farm profitability.

Secondly, maturation may be a constraining factor in YTK production, reducing somatic growth. There are also flesh quality concerns which threaten sales of YTK harvested in November-December, a period when males exhibit maturation. However preliminary analysis of work carried out in Seafood CRC project 2008/901 suggests that male maturity did not have a significant deleterious effect on the flesh quality at that time. Though there are numerous strategies to manage maturation it is initially necessary to characterise the occurrence of maturation and the factors controlling it. With this information, appropriate mitigation strategies can be introduced resulting in economic benefits to the YTK industry.

Lastly, as production is poised to increase, it is imperative that substantial markets are developed for YTK product. One way of increasing sales is to ensure product sold is consistently of the highest possible quality. By attaining knowledge on the quality attributes, shelf-life and nutritional content of the product, producers will be able to tailor a product to specific market requirements. Likewise, as processing techniques and cold chain supply routes are diverse, it is imperative that information is attained on how these influence the quality of the product.

SCRC: CoolFish - Traceability and product sensor technologies to manage seafood cool chains APPROVAL FOR PHASE 1 ONLY FOR $14,600

Project number: 2008-790
Project Status:
Completed
Budget expenditure: $0.00
Principal Investigator: Paul Turner
Organisation: University of Tasmania (UTAS)
Project start/end date: 30 Apr 2009 - 29 Jun 2011
Contact:
FRDC

Need

There is a need to integrate both traceability and freshness technologies into a single platform, so that all pertinent information can be collected as the product moves through the supply chain from processing to wholesale/retail, and to remedy unnecessary costly project rejection. Real research developments are occurring in the integration of sensor technology (which has a microbiological focus, and includes developments in food hygiene indexes for predicting the degree of seafood spoilage on the basis of time-temperature data), and traceability technology (which has a spatial focus and includes developments in geographic information systems).

The real questions for seafood producers, processors and sellers are ones of data management – what does an operator do with the data generated by devices such as temperature loggers and global traceability devices? The linkage between this information and protocols, guidelines and standards for seafood export, food safety or authenticity is not yet fully developed or tested.

Final report

ISBN: 978-1-925983-23-4
Author: Mark Tamplin
Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

Final Report • 2009-10-31 • 1.50 MB
2008-790-DLD.pdf

Summary

This report constitutes the completion of Phase 1 of the CoolFish Project. The overall objective of the CoolFish project is to utilise commercial traceability and product sensor technologies to address current business impediments and business opportunities in cool chains to support increased sustainability and profitability in seafood supply chains. Phase 1 provides information to support the decision-making process on progress of the CoolFish Project into Phases 2 and 3.

This project provides a baseline information about logistics issues and challenges in Tasmanian salmon cool chains. Reviews were established and commercially available traceability and sensor technologies with the most potential for deployment in Phases 2 and 3 of the CoolFish project were identified.

SCRC: PDRS - Seafood Molecular Biologist: Mapping Microbial Communities in Seafood Production and Processing Environments to Improve Targeting Intervention Strategies (Dr Shane Powell)

Project number: 2008-768
Project Status:
Completed
Budget expenditure: $0.00
Principal Investigator: Mark Tamplin
Organisation: University of Tasmania (UTAS)
Project start/end date: 31 Dec 2008 - 30 Dec 2011
Contact:
FRDC

Need

Microbial species negatively impact animal health, product spoilage and safety. The best approach to reduce these unwanted effects is to precisely define the species that reduce product quality, determine the sources of contamination, and then target the best intervention strategy(s) where it is required. The reason this research is needed is that the historical approach to solving these problems has been to isolate and identify bacteria using culture-based methods, based on the assumption that all bacteria that reduce product quality can be isolated on agar media. We now know that culture methods only show a small percentage of the bacteria that are present in food and other environments. Therefore we propose to use a well-tested direct-detection DNA-based method that will provide a more complete profile of microbial contamination, identify the species that cause the problem, and assist in designing strategies to produce a solution.

Final report

ISBN: 978-1-925983-31-9
Author: Shane M Powell & Mark L Tamplin
Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

Final Report • 2011-12-31 • 783.17 KB
2008-768-DLD.pdf

Summary

Until the 1990s, when it became possible to access and analyse DNA directly from the environment, the study of microbiology was limited to studying microbes that were able to be grown in artificial culture. The advent of DNA-based methods provided a way to access and study the enormous diversity of microbes that actually exist. Some fields of microbiology were quicker to take up this technology than others. Microbiological analyses carried out in industrial settings have, although this is changing, remained culture-based because they are standard methods required by regulators. They tend to be technically straight-forward and inexpensive. The goal of the Seafood Molecular Biologist position was to apply DNA-based techniques to a range of existing problems within the seafood industry. The three projects developed covered shellfish aquaculture, the processing of Atlantic Salmon and supply chains in the wild prawn fishery.

SCRC: PhD : Increasing Oyster Spat Production Through Management of Microbiological Contamination

Project number: 2008-761
Project Status:
Completed
Budget expenditure: $0.00
Principal Investigator: Mark Tamplin
Organisation: University of Tasmania (UTAS)
Project start/end date: 25 Aug 2008 - 24 Aug 2011
Contact:
FRDC

Need

Vibrio species are a notorious pest in all aquaculture systems, producing significant losses in productivity. However, the problem still persists today because the causative agents and associated virulence factors have not been adequately identified and, because little is known about environmental conditions that cause the pathogen(s) to proliferate. Supply of oyster spat is currently failing to meet demand consistently in Australia, with Australian hatcheries only producing seed for the local market of approximately 250 million a year compared to a world market in excess of 10 billion oyster seed. Solving this problem will allow Australian oyster hatcheries to design and implement effective risk management systems, thus increasing supply to expand national and international markets. In addition, the aquaculture industry needs greater human capability and capacity to manage disease in aquaculture operations.

Relevance to industry priorities and Seafood CRC milestones
The associated Program and theme is within Production Innovation – Program Manager Dr Graham Mair - Outcome: Increased profitability and industry value through production innovation.

Specific output and associated milestones include:

1.3 Output: Removal or reduction of key production constraints in selected aquaculture systems
1.3.3 Milestone: Strategic disease management approaches and technologies developed for at least two aquaculture species
1.3.5 Milestone: Production efficiency gains from genetic, health management and nutritional interventions quantified to inform long-term strategies and estimate commercial benefits

SCRC: Seafood CRC: Advances in marine fish hatchery technology in Australia workshop

Project number: 2008-743
Project Status:
Completed
Budget expenditure: $0.00
Principal Investigator: Stephen Battaglene
Organisation: University of Tasmania (UTAS)
Project start/end date: 31 May 2008 - 31 Dec 2008
Contact:
FRDC

Need

There have been a number of workshops in Australia that have prioritised research and development of live feed and hatchery technologies, notably two sponsored by the FRDC in 2000 and 2004. At the 2006 Australasian Aquaculture Conference, Skretting hosted a marine fin-fish hatchery session. There is now an opportunity to continue this form of communication at the upcoming Skretting Australasian Aquaculture Conference in Brisbane. At the conference there are a number of sessions that will provide background material. For example, we are organising a session entitled “Innovations in marine fin-fish larval rearing”. The session will cover significant, recent innovations in marine finfish larval rearing systems and species, drawing on international and national speakers. The speakers will set the scene for discussion between industry representatives and researchers concerning the national approach to improving production efficiency and juvenile quality in Australian hatcheries. The proposed workshop on the 7th August will take the process one step further with a series of industry and research hatchery presentations. At the end of the workshop we will have a revised hatchery plan for strategic research direction. This information can feed into the FRDC and Seafood CRC processes and links directly to the newly created Business Theme for finfish. The workshop is consistent with the priorities for communication and training discussed at the recent workshop on the CRC Theme Business Plan for Finfish production.

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