PROJECT NUMBER
•
2019-104
PROJECT STATUS:
CURRENT
ORGANISATION:
University of Adelaide
SPECIES
29 results
PROJECT NUMBER
•
2022-193
PROJECT STATUS:
COMPLETED
ORGANISATION:
Institute for Marine and Antarctic Studies (IMAS) Hobart
SPECIES
PROJECT NUMBER
•
2018-034
PROJECT STATUS:
COMPLETED
Effects of climate change and habitat degradation on Coral Trout
Fishes are at considerable risk from changing environmental conditions because they are, for most part, unable to regulate their body temperature. Exposure to high temperatures may therefore compromise critical biological functions, resulting in reduced performance, fitness and ultimately survival....
ORGANISATION:
James Cook University (JCU)
SPECIES
PROJECT NUMBER
•
2016-142
PROJECT STATUS:
COMPLETED
Genetic diversity audit of farm held stocks of Greenlip and Blacklip abalone
Following the AVG virus, the number of broodstock that were available to produce hybrids was drastically reduced. This project was undertaken in order to ascertain the genetic diversity present within farm held broodstock of greenlip and blacklip abalone and to determine the degree of genetic...
ORGANISATION:
James Cook University (JCU)
SPECIES
PROJECT NUMBER
•
2019-118
PROJECT STATUS:
CURRENT
ORGANISATION:
Cathy Dichmont Consulting
PROJECT NUMBER
•
2021-047
PROJECT STATUS:
CURRENT
ORGANISATION:
Department of Agriculture and Fisheries Brisbane
TAGS
SPECIES
PROJECT NUMBER
•
2021-112
PROJECT STATUS:
CURRENT
ORGANISATION:
University of Adelaide
PROJECT NUMBER
•
2016-009
PROJECT STATUS:
COMPLETED
Aquatic Animal Health and Biosecurity Subprogram: Perkinsus olseni in abalone - development of fit-for-purpose tools to support its management
The project was able to successfully propagate a new P. olseni isolate from Queensland and successfully cultured the isolates from Spain, Japan, New Zealand, and South Australia as well as P. chesapeaki, which was used as a negative control. We were unable to culture the Western Australian (WA)...
ORGANISATION:
Department of Primary Industries and Regional Development (DPIRD) WA
PROJECT NUMBER
•
2015-239
PROJECT STATUS:
COMPLETED
Oysters Australia IPA: Pacific Oyster Mortality Syndrome - resistant Oyster breeding for a sustainable Pacific Oyster Industry in Australia
This report describes selective breeding research and extension conducted by Australian Seafood Industries Pty Ltd (ASI) to assist the Pacific Oyster industry’s recovery from an outbreak of Pacific Oyster Mortality Syndrome (POMS) in Tasmania in 2016. The report also describes research to...
ORGANISATION:
Australian Seafood Industries Pty Ltd (ASI)
TAGS
SPECIES
Developing FRDC’s 2020-2025 RD&E Plan
Project number:
2018-197
Project Status:
Completed
Budget expenditure:
$370,061.23
Principal Investigator:
Matt Barwick
Organisation:
Fisheries Research and Development Corporation (FRDC)
Project start/end date:
19 Apr 2019
-
30 Dec 2020
Contact:
FRDC
Section 19 of PIRD Act requires R&D corporations to prepare R&D Plans for each consecutive 5-year period. Each plan is to include (at a minimum):
· a statement of the Corporation’s objectives and priorities for the period to which the plan is expressed to relate; and
· an outline of the strategies that the Corporation intends to adopt in order to achieve those objectives.
Under section 10 of the Funding Agreement between FRDC and the Department of Agriculture and Water Resources (DAWR), FRDC is required to develop a consultation plan, which seeks to:
• explain the purpose and objectives of consultation to inform the 2020-2025 RD&E Plan;
• describe who will be consulted;
• outline methods proposed; and,
• explain how input provided will be used.
FRDC is to obtain DAWR approval for the consultation plan prior to commencement of activities.
In order to develop an RD&E Plan which accurately interprets and responds to RD&E needs for Australia’s fishing and aquaculture community it is important to understand the aspirations, pain points, risks and opportunities of each sector over the intended life of the plan through undertaking broad consultation. It is also important to understand the current situation of the fishing and aquaculture (F&A) community (including indigenous, wild catch, aquaculture and recreational, and post-harvest sectors). The situational analysis should provide an updated understanding of what fishing and aquaculture looks like in Australia today, who is involved, what drives them, how they are performing, how the product (if retained) is used, what are the main dominant risks and trends. An earlier situational analysis delivered as an output of FRDC Project 2014/503.20 provides a useful template.
Finally, it is for any RD&E plan to be informed by an understanding of likely future trends, risks and opportunities facing Australia’s F&A community in the future. This requires:
· compilation of evidence to enable consideration of likely future geopolitical, social, economic, environmental and/or technical changes likely to occur in the future, and drivers of those changes;
· generation of projections relating to supply and demand for seafood products as well as cultural and/or recreational time use
1. Undertake consultative activities to inform development of the 2020-2025 RD&E Plan
2. Deliver a contemporary situational analysis for Australia’s fishing and aquaculture community to inform FRDC’s 2020-2025 RD&E Plan
3. Deliver a future-scan with a decadal time horizon (2030) to inform FRDC’s 2020-2025 RD&E Plan
4. Undertake activities necessary to enable launch of the 2020-2025 RD&E Plan by 30 June 2020.
Final report
Authors:
Jeff Dambacher
Alistair Hobday
Fabio Boschetti
Chris Moeseneder
Linda Thomas
Final Report
•
2020-05-28
•
2.57 MB
2018-197-DLD.pdf
This report covers the second of two CSIRO contributions to the project FRDC 2018-197. This project was reviewing FRDC research objectives through a process that developed alternative scenarios of possible futures relevant to Australian fisheries. Discussed here is the development of a quantitative model to explore future seafood scenarios developed elsewhere. The purpose of this modelling exercise was to support the project FRDC 2018-197. The development of these possible future scenarios was undertaken in a process
that ran in parallel to the CSIRO contribution. This process involved a series of stakeholder workshops and follow-up discussions, to which CSIRO staff were occasional observers.
that ran in parallel to the CSIRO contribution. This process involved a series of stakeholder workshops and follow-up discussions, to which CSIRO staff were occasional observers.
The qualitative models developed to describe present day dynamics were then tested to see if they could account for previously observed shocks or perturbations the Australian aquaculture and fisheries system. This involved a face-to-face workshop and teleconference with representatives of the Stage 1 expert group.
Based on external input to management, employment and environmental variables, the qualitative models produced a set of predictions that were highly consistent with previously observed impacts in Australian fisheries and aquaculture.
The models were then tested to see how well they compared to the dynamics described in the future scenarios, and here model predictions were found to be highly consistent with the dynamics played out in the two future scenarios – that is, both worlds are likely.
The models were then tested to see how well they compared to the dynamics described in the future scenarios, and here model predictions were found to be highly consistent with the dynamics played out in the two future scenarios – that is, both worlds are likely.
With ongoing support from CSIRO, these models can now be used to explore alternative perturbations, identify the informative indicators, and to determine when these models of the future (World A and B) are no longer realistic representations of real situation. If insufficient information is being gather on these indicators, the efforts could be made to collect such data, or if the information is too expensive, the alternatives can also be investigated to determine how many alternative indicators provide the equivalent conformation
View Filter
