59,643 results

Seafood CRC: loss minimisation in farmed prawns through improvements in storage life and colour

Project number: 2010-707
Project Status:
Completed
Budget expenditure: $185,763.69
Principal Investigator: Sue Poole
Organisation: Department of Primary Industries (QLD)
Project start/end date: 30 Apr 2010 - 28 Feb 2013
Contact:
FRDC

Need

The prawn industry is being challenged to provide prawn product that maintains premium quality throughout an extended storage-life. Significant revenue loss for farmed prawns within the retail sector occurs through product not meeting market colour specification and also severe price reduction near the end of chilled storage life. The losses can be minimised by optimising on-farm production protocols to maintain a consistent colour in farmed prawns during frozen storage and by gaining additional shelf-life of chilled cooked prawns throughout the supply chain.

The opportunity is to introduce a range of technologies, along with widely-adopted proven best practise, that maintains premium quality after cooking and freezing. The technologies will incorporate natural compounds with antimicrobial/antioxidant properties, synergistic packaging, glazing and thereby extend chilled storage-life of the prawn whilst maintaining optimal quality. By maximising astaxanthin level at harvest and reducing degradation during storage, consistent premium red-orange colour of prawns will be assured for the retail market.

This research addresses the Program 3: Improving Farmed Prawn Market Value priority of APFA’s Five Year R&D Plan for the Australian Prawn Farming Industry, 2007-2012. Program 3 seeks to achieve the objective of increasing the average price received for Australian farmed prawns to $16.50/kg.

Objectives

1. Evaluate the effectiveness of natural extracts as preservation technologies for reducing microbial loads
2. Compare various packaging options which are available commercially and select the most appropriate for synergistic extension storage life and to develop ready-to-go concept products
3. Develop optimised on-farm processing protocols by combining the most suitable natural compounds and packaging to obtain premium quality prawns
4. Summarise current available information on world-wide best practice operations that maximise red colour in cooked prawns
5. Determine rate of astaxanthin loss during processing and frozen storage
6. Establish required astaxanthin level in harvested prawns to retain colour level (APFA 8+) through subsequent long-term frozen storage
7. Identify synergistic benefits of a combination of techniques, including live harvest holding (black tank) and optimal glazing methods on astaxanthin levels and colour retention
8. Extend and illustrate optimal protocols to the industry partners through on-farm trials

Development of an integrated fisheries management model for King George whiting (Sillaginodes punctata) in South Australia

Project number: 1995-008
Project Status:
Completed
Budget expenditure: $461,163.00
Principal Investigator: Anthony J. Fowler
Organisation: SARDI Food Safety and Innovation
Project start/end date: 29 Dec 1995 - 30 Jun 2001
Contact:
FRDC

Objectives

1. To produce an age-structured, spatial-temporal fishery model for King George whiting in South Australia based on a comprehensive understanding of its biology, life-history and genetics as well as an analysis of the fishery. This model will be used as a stock assessment tool to assess management options.
2. To implement a biological research programme to facilitate objective 1/, including: a/. determination of site-specific age-structures based on ageing fish using otoliths, to be used for estimation of demographic parameters
b/. completion of the understanding of the life-history including reproductive, early and adult biological information
c/. assessment of genetic variation amongst populations over two spatial scales (amongst states and amongst regions within SA).
3. To review current commercial catch and effort information to: a/. identify the value of such data for estimating population abundance
b/. continue an on-going assessment of impacts of technological advances in fishing equipment on catch and effort in the commercial sector of the fishery
c/. compare commercial catch with that from recreational catch information currently being collected in SA using creel surveys (FRDC 92/81).

Guide

Author: Anthony Fowler
Guide • 7.64 MB
1995-008-PDT-1.pdf

Summary

The King George Whiting Simulator (WhitSim) is a simulation version of the Whiting Estimator (WhitEst) encased inside a graphical user interface (GUI) that includes geographical information systems (GIS). WhitSim provides the ability to simulate various management strategies and parameter scenarios and interrogate results of the simulation via in-built statistical, curve fitting and indicator analysis modules.

Final Report • 2000-08-31 • 11.76 MB
1995-008-DLD.pdf

Summary

King George whiting (Sillaginodes punctata) remains a prime target species of the marine scalefish fishery of South Australia. Levels of fishing mortality are high on inshore populations throughout the fishery which has caused concern about the level of egg production. This prompted the need for a comprehensive stock assessment for this fishery. However, complicating this task is the fact that the life-history incorporates an obligate migratory step where fish move from shallow, inshore areas where they are heavily targeted, to deeper, more exposed places where the spawning populations occur.

Project products

Guide • 7.64 MB
1995-008-PDT-1.pdf

Summary

The King George Whiting Simulator (WhitSim) is a simulation version of the Whiting Estimator (WhitEst) encased inside a graphical user interface (GUI) that includes geographical information systems (GIS). WhitSim provides the ability to simulate various management strategies and parameter scenarios and interrogate results of the simulation via in-built statistical, curve fitting and indicator analysis modules.

Final Report • 2000-08-31 • 11.76 MB
1995-008-DLD.pdf

Summary

King George whiting (Sillaginodes punctata) remains a prime target species of the marine scalefish fishery of South Australia. Levels of fishing mortality are high on inshore populations throughout the fishery which has caused concern about the level of egg production. This prompted the need for a comprehensive stock assessment for this fishery. However, complicating this task is the fact that the life-history incorporates an obligate migratory step where fish move from shallow, inshore areas where they are heavily targeted, to deeper, more exposed places where the spawning populations occur.

Guide • 7.64 MB
1995-008-PDT-1.pdf

Summary

The King George Whiting Simulator (WhitSim) is a simulation version of the Whiting Estimator (WhitEst) encased inside a graphical user interface (GUI) that includes geographical information systems (GIS). WhitSim provides the ability to simulate various management strategies and parameter scenarios and interrogate results of the simulation via in-built statistical, curve fitting and indicator analysis modules.

Final Report • 2000-08-31 • 11.76 MB
1995-008-DLD.pdf

Summary

King George whiting (Sillaginodes punctata) remains a prime target species of the marine scalefish fishery of South Australia. Levels of fishing mortality are high on inshore populations throughout the fishery which has caused concern about the level of egg production. This prompted the need for a comprehensive stock assessment for this fishery. However, complicating this task is the fact that the life-history incorporates an obligate migratory step where fish move from shallow, inshore areas where they are heavily targeted, to deeper, more exposed places where the spawning populations occur.

Guide • 7.64 MB
1995-008-PDT-1.pdf

Summary

The King George Whiting Simulator (WhitSim) is a simulation version of the Whiting Estimator (WhitEst) encased inside a graphical user interface (GUI) that includes geographical information systems (GIS). WhitSim provides the ability to simulate various management strategies and parameter scenarios and interrogate results of the simulation via in-built statistical, curve fitting and indicator analysis modules.

Final Report • 2000-08-31 • 11.76 MB
1995-008-DLD.pdf

Summary

King George whiting (Sillaginodes punctata) remains a prime target species of the marine scalefish fishery of South Australia. Levels of fishing mortality are high on inshore populations throughout the fishery which has caused concern about the level of egg production. This prompted the need for a comprehensive stock assessment for this fishery. However, complicating this task is the fact that the life-history incorporates an obligate migratory step where fish move from shallow, inshore areas where they are heavily targeted, to deeper, more exposed places where the spawning populations occur.

Guide • 7.64 MB
1995-008-PDT-1.pdf

Summary

The King George Whiting Simulator (WhitSim) is a simulation version of the Whiting Estimator (WhitEst) encased inside a graphical user interface (GUI) that includes geographical information systems (GIS). WhitSim provides the ability to simulate various management strategies and parameter scenarios and interrogate results of the simulation via in-built statistical, curve fitting and indicator analysis modules.

Final Report • 2000-08-31 • 11.76 MB
1995-008-DLD.pdf

Summary

King George whiting (Sillaginodes punctata) remains a prime target species of the marine scalefish fishery of South Australia. Levels of fishing mortality are high on inshore populations throughout the fishery which has caused concern about the level of egg production. This prompted the need for a comprehensive stock assessment for this fishery. However, complicating this task is the fact that the life-history incorporates an obligate migratory step where fish move from shallow, inshore areas where they are heavily targeted, to deeper, more exposed places where the spawning populations occur.

Guide • 7.64 MB
1995-008-PDT-1.pdf

Summary

The King George Whiting Simulator (WhitSim) is a simulation version of the Whiting Estimator (WhitEst) encased inside a graphical user interface (GUI) that includes geographical information systems (GIS). WhitSim provides the ability to simulate various management strategies and parameter scenarios and interrogate results of the simulation via in-built statistical, curve fitting and indicator analysis modules.

Final Report • 2000-08-31 • 11.76 MB
1995-008-DLD.pdf

Summary

King George whiting (Sillaginodes punctata) remains a prime target species of the marine scalefish fishery of South Australia. Levels of fishing mortality are high on inshore populations throughout the fishery which has caused concern about the level of egg production. This prompted the need for a comprehensive stock assessment for this fishery. However, complicating this task is the fact that the life-history incorporates an obligate migratory step where fish move from shallow, inshore areas where they are heavily targeted, to deeper, more exposed places where the spawning populations occur.

Harvest and slaughter methods for farmed Barramundi to minimise fish stress and achieve premium market quality and improved fish welfare outcomes

Project number: 2019-003
Project Status:
Completed
Budget expenditure: $124,230.90
Principal Investigator: Paul Exley
Organisation: Department of Primary Industries (QLD)
Project start/end date: 7 Jul 2019 - 27 Jun 2021
Contact:
FRDC
SPECIES

Need

Current practices for slaughter of farmed Barramundi use ice slurry. The sector has undertaken preliminary research to understand impacts of harvest and slaughter methods on stress, product quality and fish welfare.
Further investigation is needed into practical and cost-effective application of rested harvest on farms, together with understanding how practices can be improved, for example understanding optimal ice slurry amount, timing, and crowding; and determining impact on flesh quality indicators (e.g. flesh pH, blood glucose and lactate and blood pH). Complementary to harvest method protocols, is the need to investigate the impact on stress of direct transfer of fish into ice slurry as a slaughter method.

The project focus contributes directly to the National priority of:
Improving productivity and profitability of fishing and aquaculture, by increasing profitability through better supply-chain connections (FRDC RD&E plan, 2015-20).
Similarly, the project addresses the NPIRDEF, Working together: the National fishing and aquaculture RD&E Strategy, 2010 value chain outcome of:
Fisheries and aquaculture are prosperous and viable; strategic research themes – growth and profitability; maximising value from aquatic resources.

Objectives

1. Determine stress imposed on fish during harvest operations, and develop methods for stress reduction.
2. Evaluate methods of slaughter that minimise stress to fish, incorporating animal welfare best practice
3. Refine and adapt protocols on farm with Industry to ensure practicality and cost-effectiveness
4. Prepare guide material on effective protocols for Industry best practice in formats suitable for ready reference by Industry

Final report

ISBN: 978-0-6456352-0-1
Author: Paul Exley
Final Report • 2022-12-15 • 4.86 MB
2019-003-DLD.pdf

Summary

The Australian Barramundi Farmer's Association (ABFA) has learned how harvest teams on farms can take simple preparatory steps to ensure the quality and consistency of Australian farmed Barramundi reaching the market.  Scientists have worked with farmers that have nurtured their Barramundi for the last two years through the grow-out phase and have demonstrated through on-farm trials that the harvest phase is just as crucial.  Research undertaken with farmers has shown that it is important to keep water dissolved oxygen levels above 5.0 mg/L as the fish are concentrated together beside the pond bank for harvest, particularly at high water temperatures.  The next step is to have the correct number of ice slurry bins on hand to receive the tonnage the farm plans to harvest, with the correct ratio of fish, brine and ice to ensure rapid chill.  All data gained will serve as a baseline 'toolbox' to compare future harvest technologies that will be adopted to progress the pursuit of quality.
Final Report • 2022-12-15 • 4.86 MB
2019-003-DLD.pdf

Summary

The Australian Barramundi Farmer's Association (ABFA) has learned how harvest teams on farms can take simple preparatory steps to ensure the quality and consistency of Australian farmed Barramundi reaching the market.  Scientists have worked with farmers that have nurtured their Barramundi for the last two years through the grow-out phase and have demonstrated through on-farm trials that the harvest phase is just as crucial.  Research undertaken with farmers has shown that it is important to keep water dissolved oxygen levels above 5.0 mg/L as the fish are concentrated together beside the pond bank for harvest, particularly at high water temperatures.  The next step is to have the correct number of ice slurry bins on hand to receive the tonnage the farm plans to harvest, with the correct ratio of fish, brine and ice to ensure rapid chill.  All data gained will serve as a baseline 'toolbox' to compare future harvest technologies that will be adopted to progress the pursuit of quality.
Final Report • 2022-12-15 • 4.86 MB
2019-003-DLD.pdf

Summary

The Australian Barramundi Farmer's Association (ABFA) has learned how harvest teams on farms can take simple preparatory steps to ensure the quality and consistency of Australian farmed Barramundi reaching the market.  Scientists have worked with farmers that have nurtured their Barramundi for the last two years through the grow-out phase and have demonstrated through on-farm trials that the harvest phase is just as crucial.  Research undertaken with farmers has shown that it is important to keep water dissolved oxygen levels above 5.0 mg/L as the fish are concentrated together beside the pond bank for harvest, particularly at high water temperatures.  The next step is to have the correct number of ice slurry bins on hand to receive the tonnage the farm plans to harvest, with the correct ratio of fish, brine and ice to ensure rapid chill.  All data gained will serve as a baseline 'toolbox' to compare future harvest technologies that will be adopted to progress the pursuit of quality.
Final Report • 2022-12-15 • 4.86 MB
2019-003-DLD.pdf

Summary

The Australian Barramundi Farmer's Association (ABFA) has learned how harvest teams on farms can take simple preparatory steps to ensure the quality and consistency of Australian farmed Barramundi reaching the market.  Scientists have worked with farmers that have nurtured their Barramundi for the last two years through the grow-out phase and have demonstrated through on-farm trials that the harvest phase is just as crucial.  Research undertaken with farmers has shown that it is important to keep water dissolved oxygen levels above 5.0 mg/L as the fish are concentrated together beside the pond bank for harvest, particularly at high water temperatures.  The next step is to have the correct number of ice slurry bins on hand to receive the tonnage the farm plans to harvest, with the correct ratio of fish, brine and ice to ensure rapid chill.  All data gained will serve as a baseline 'toolbox' to compare future harvest technologies that will be adopted to progress the pursuit of quality.
Final Report • 2022-12-15 • 4.86 MB
2019-003-DLD.pdf

Summary

The Australian Barramundi Farmer's Association (ABFA) has learned how harvest teams on farms can take simple preparatory steps to ensure the quality and consistency of Australian farmed Barramundi reaching the market.  Scientists have worked with farmers that have nurtured their Barramundi for the last two years through the grow-out phase and have demonstrated through on-farm trials that the harvest phase is just as crucial.  Research undertaken with farmers has shown that it is important to keep water dissolved oxygen levels above 5.0 mg/L as the fish are concentrated together beside the pond bank for harvest, particularly at high water temperatures.  The next step is to have the correct number of ice slurry bins on hand to receive the tonnage the farm plans to harvest, with the correct ratio of fish, brine and ice to ensure rapid chill.  All data gained will serve as a baseline 'toolbox' to compare future harvest technologies that will be adopted to progress the pursuit of quality.
Final Report • 2022-12-15 • 4.86 MB
2019-003-DLD.pdf

Summary

The Australian Barramundi Farmer's Association (ABFA) has learned how harvest teams on farms can take simple preparatory steps to ensure the quality and consistency of Australian farmed Barramundi reaching the market.  Scientists have worked with farmers that have nurtured their Barramundi for the last two years through the grow-out phase and have demonstrated through on-farm trials that the harvest phase is just as crucial.  Research undertaken with farmers has shown that it is important to keep water dissolved oxygen levels above 5.0 mg/L as the fish are concentrated together beside the pond bank for harvest, particularly at high water temperatures.  The next step is to have the correct number of ice slurry bins on hand to receive the tonnage the farm plans to harvest, with the correct ratio of fish, brine and ice to ensure rapid chill.  All data gained will serve as a baseline 'toolbox' to compare future harvest technologies that will be adopted to progress the pursuit of quality.

Aquatic Animal Health Subprogram: aquatic animal health emergency management training and incident simulation

Project number: 2002-664
Project Status:
Completed
Budget expenditure: $15,004.00
Principal Investigator: Melanie Ryan
Organisation: Seafood Training (SA)
Project start/end date: 29 Jun 2002 - 31 Oct 2004
Contact:
FRDC

Need

The South Australian seafood industry is possibly the fastest growth industry in the State having climbed rapidly to a position of the State’s 5th largest export industry with a production value of almost $650 million. The entire seafood industry has doubled in size every two and a half years since 1994 and is expected to break the $2 Billion barrier before 2010. The strongest growth has been recorded in the aquaculture sector of the seafood industry which is now nearing $400 million worth of annual value.

The aquaculture industry is made up of land based and marine based operators. The largest South Australian sectors are all marine-based with tuna, oysters and marine finfish all strongly performing. The relatively new mussel industry is currently in a major expansion phase. The most significant land based industry is abalone.

The aquaculture industry in South Australia has expanded considerably over the past twelve months, however there are little or no available disease emergency management plans or training courses for this industry. With further rapid expansion planned for the marine finfish industry, the tonnages of farmed fish will rise very rapidly over the next eight to ten years. There are currently approximately 3000 tonnes of fish currently in the water (non tuna) and this figure is expected to rise to some 10,000 tonnes by 2010. Research priorities have centred on the reproduction and grow-out of new species and have often overlooked the threat of specific disease(s) until they occur.

It is imperative for the successful management of aquatic animal health issues that an immediate, proactive approach be adopted. A continuing reactive stance towards disease management is hazardous, causing high risk to both the industry and the environment, and greater exposure to negative public sentiment, let alone the potential scale of the economic loss.

The aquaculture industry has made serious attempts to train as many personnel as possible and for the past two years the two principal training providers, the Australian Fisheries Academy and the Spencer Institute of TAFE have been training record numbers of personnel.

Seafood Training SA is the industry’s peak body on all training and development support matters. The organisation is the only seafood body in the State that has representation from all industry sectors and peak bodies as well as relevant Government agencies and undertakes detailed research on industry training needs.

Following a series of discussions with sector bodies last year, it was identified that the industry lacked relevant training in emergency management procedures for aquatic animal health. Whilst basic training in aquatic animal health and emergency procedures forms part of the new Seafood Industry Training Package, a large number of both employers and employees have no formal training or access to materials that meet their specific needs.

There is currently an urgent need to develop a number of structured Aquatic Animal Health Emergency Procedures Manual and accompanying training workshop(s) specifically for the each of the State’s burgeoning aquaculture industry sectors and ensure that all staff from farm hand operatives through to farm managers are conversant with the procedures.

Objectives

1. The identification of strategies to effectively manage aquatic animal health emergencies.
2. The provision of responsive aquatic animal health emergency training workshops for both employers and employees of the aquaculture industry.

Final report

ISBN: 646422782
Author: Melanie Ryan
Final Report • 2004-10-07 • 4.27 MB
2002-664-DLD.pdf

Summary

Following some initial research in 2001, it was found that the aquaculture industry lacked relevant training in emergency management procedures for aquatic animal health. There was a dangerous perception that all animal health matters were the preserve of external specialists and a few biologists within the industry. There was a singular lack of both knowledge and responsibility for aquatic animal health and in most cases not even basic procedures for managing a health emergency. This resulted in the development of a project to provide training to the industry on what to do, who to contact, what steps were required to deal with the emergency and how to contain it. The concept of a short workshop program to provide basic knowledge and some practical tools was seen as an important precursor to a larger industry planning process for aquatic animal health emergencies.
Final Report • 2004-10-07 • 4.27 MB
2002-664-DLD.pdf

Summary

Following some initial research in 2001, it was found that the aquaculture industry lacked relevant training in emergency management procedures for aquatic animal health. There was a dangerous perception that all animal health matters were the preserve of external specialists and a few biologists within the industry. There was a singular lack of both knowledge and responsibility for aquatic animal health and in most cases not even basic procedures for managing a health emergency. This resulted in the development of a project to provide training to the industry on what to do, who to contact, what steps were required to deal with the emergency and how to contain it. The concept of a short workshop program to provide basic knowledge and some practical tools was seen as an important precursor to a larger industry planning process for aquatic animal health emergencies.
Final Report • 2004-10-07 • 4.27 MB
2002-664-DLD.pdf

Summary

Following some initial research in 2001, it was found that the aquaculture industry lacked relevant training in emergency management procedures for aquatic animal health. There was a dangerous perception that all animal health matters were the preserve of external specialists and a few biologists within the industry. There was a singular lack of both knowledge and responsibility for aquatic animal health and in most cases not even basic procedures for managing a health emergency. This resulted in the development of a project to provide training to the industry on what to do, who to contact, what steps were required to deal with the emergency and how to contain it. The concept of a short workshop program to provide basic knowledge and some practical tools was seen as an important precursor to a larger industry planning process for aquatic animal health emergencies.
Final Report • 2004-10-07 • 4.27 MB
2002-664-DLD.pdf

Summary

Following some initial research in 2001, it was found that the aquaculture industry lacked relevant training in emergency management procedures for aquatic animal health. There was a dangerous perception that all animal health matters were the preserve of external specialists and a few biologists within the industry. There was a singular lack of both knowledge and responsibility for aquatic animal health and in most cases not even basic procedures for managing a health emergency. This resulted in the development of a project to provide training to the industry on what to do, who to contact, what steps were required to deal with the emergency and how to contain it. The concept of a short workshop program to provide basic knowledge and some practical tools was seen as an important precursor to a larger industry planning process for aquatic animal health emergencies.
Final Report • 2004-10-07 • 4.27 MB
2002-664-DLD.pdf

Summary

Following some initial research in 2001, it was found that the aquaculture industry lacked relevant training in emergency management procedures for aquatic animal health. There was a dangerous perception that all animal health matters were the preserve of external specialists and a few biologists within the industry. There was a singular lack of both knowledge and responsibility for aquatic animal health and in most cases not even basic procedures for managing a health emergency. This resulted in the development of a project to provide training to the industry on what to do, who to contact, what steps were required to deal with the emergency and how to contain it. The concept of a short workshop program to provide basic knowledge and some practical tools was seen as an important precursor to a larger industry planning process for aquatic animal health emergencies.
Final Report • 2004-10-07 • 4.27 MB
2002-664-DLD.pdf

Summary

Following some initial research in 2001, it was found that the aquaculture industry lacked relevant training in emergency management procedures for aquatic animal health. There was a dangerous perception that all animal health matters were the preserve of external specialists and a few biologists within the industry. There was a singular lack of both knowledge and responsibility for aquatic animal health and in most cases not even basic procedures for managing a health emergency. This resulted in the development of a project to provide training to the industry on what to do, who to contact, what steps were required to deal with the emergency and how to contain it. The concept of a short workshop program to provide basic knowledge and some practical tools was seen as an important precursor to a larger industry planning process for aquatic animal health emergencies.
Industry

Two-Eyed Seeing – a framework for cultural fishery assessments supporting equitable and sustainable access to shared resources in NSW Inland Rivers

Project number: 2021-107
Project Status:
Current
Budget expenditure: $1,460,500.00
Principal Investigator: Katherine J. Cheshire
Organisation: NSW Department Of Primary Industries Port Stephens
Project start/end date: 2 Jul 2023 - 31 Aug 2028
Contact:
FRDC

Need

Fish are totemic and a primary food source; and so are part of the deep cultural, spiritual and economic connections Aboriginal communities have to their waterways that are part of ‘Country’. Cultural knowledge tells us that when there’s more water availability cultural fishers experience increased total catches and greater diversity of target species, and they fish more (e.g. increase in recreational and subsistence fishing). These narratives also suggest that as a result of these improved cultural fishing opportunities, there are flow on socio-economic benefits to household budgets, diets of communities, social behaviours and mental health and well-being.

Water is sacred and living; and central to the cultural, social and spiritual identity of Aboriginal people, as well as to their livelihoods. Conceptual models underpinning western water management frameworks and decision making do not incorporate Aboriginal/First Nations socio-cultural complexity, local knowledge and governance arrangements. These are critical – Aboriginal/First Nations people have strong connections with fish, water, rivers and knowledge to contribute to planning, as well as a fundamental right to participate. Water and fish are central to the way of life, two-way knowledge and planning frameworks will support reciprocity in engagement and participation.

Two-Eyed Seeing Frameworks (Ganma, Yolgnu for two-ways) provide a way forward for cultural fishery assessments supporting equitable and sustainable access to shared resources. In this framework, knowledge systems (western and cultural) contribute in parallel, on an equal footing, and both serve as evidence bases to produce an enriched picture of mutual understanding. Application of this framework can empower Aboriginal communities to participate more equitably and negotiate by using their science and values and providing a method for inclusion.

The overall objective of this proposed project is to empower Aboriginal communities through application of a “Two-Eyed seeing framework” (Reid et al. 2020) to participate more equitably and negotiate for cultural fishing practices and water allocation and management. This project will define the cultural fishery and quantify the socio-economic value of cultural fishing in two NSW river regions, and assist communities to identify water management needs for key cultural fish species to support ongoing planning and negotiations. It will improve our current fishery and water management by providing a pathway for cultural fisheries and cultural science to be included. Overall, it will increase our current knowledge of fish and fisheries, by bridging the gap between cultural science and western science practitioners and knowledge holders to share understandings, insights and skills. The application and extension of this framework to a national project will be considered for future use in addressing cultural fishery allocations and management.

Objectives

1. Identify suitable NSW riverine cultural fisheries, engage with Aboriginal Communities, Traditional Owners, codesign the project and confirm move to phase 2.
2. Define and quanitfy the cultural fishery and associated totemic, cultura and social values
3. Identify and describe fish objectives and water management needs for cultural fish species using the Fish and Flows Framework.
4. Determine if changes in (2) are related to changes in water availability, policy and operations and/or river restoration activities (e.g. fish passage restoration, cold water passage, screening), if possible.
5. Objectively assess the efficacy and utility of the “Two-Eyed Seeing framework” in assessing the totemic, culutal and social fishing values and linking them to the fish and flows framework, including consideration of National applicability.
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