27 results

Seafood CRC: Education and training exchange program with NOFIMA, a world leading aquaculture research institute

Project number: 2008-772
Project Status:
Completed
Budget expenditure: $5,000.00
Principal Investigator: Nicholas A. Robinson
Organisation: Flinders Partners Pty Ltd
Project start/end date: 30 Jun 2015 - 19 Dec 2015
Contact:
FRDC

Need

Individuals/organisations that would benefit from the program with Nofima are those that are:

1. considering starting selective breeding programs or supplying industry with hatchery stock (as many as 10 industry associations or groups of farms)

2. analysing data and making decisions about the selection and mating of selectively bred stock (as many as 10 genetics service providers, private or public)

3. involved with the day-to-day operation of a nucleus or hatchery (includes many hatchery managers)

4. trying to run a profitable selective breeding or hatchery business (eg. managers or owners of companies such as Australian Seafood Industries PL for Pacific Oyster or Saltas PL for Atlantic Salmon)

Individuals/organisations in these interest groups have overlapping needs to some degree:

A. Need for owners, managers, geneticists and hatchery staff in Australia to be put in touch (network) with those having similar responsibilities in other sectors within Australia, as well as with international players in the selective breeding scene, so that they can benefit from the experience of existing research organisations and businesses.

B. Australia's reputation, isolation and environment could make it an attractive source of selectively bred stock internationally. Therefore there is an opportunity for some breeding programs to supply overseas producers with genetically improved stock. But there is a need to understand how such a business might operate and how risks can be managed.

C. Need for those analysing data and making decisions about the selection and mating of selectively bred stock, and involved with the day-to-day operation of a nucleus or hatchery, to be informed of the latest technical developments overseas and how developments might be adopted to benefit Australian breeding companies and aquaculture industries.

D. Need for improving basic knowledge about establishing, running and profiting from selective breeding.

Objectives

1. To give owners, managers, geneticists and hatchery staff involved with selective breeding programs in Australia short-term exposure to facilitate the establishment of dialogue, cooperation and/or collaboration with international players on the selective breeding scene
2. To directly educate and inform scientists making decisions about selection and mating (at least one person for each aquaculture industry participating in the Seafood CRC) and those involved with the day-to-day operation of the nucleus or hatchery about the latest technical developments overseas and how these might be adapted within Australia
3. To improve basic knowledge about establishing, running and profiting from selective breeding leading to implementation of significant and recognisable improvements in breeding programs towards world’s best practice (on average at least one improvement per sector)

Final report

ISBN: 978-0-9875953-2-4
Author: Nick Robinson
Final Report • 2019-05-01 • 787.21 KB
2008-772-DLD.pdf

Summary

A number of businesses have recently been established in Australia with a primary focus on genetic improvement and the sale of genetically improved stock for aquaculture. The production of selectively bred stock has been shown to have high benefit-cost, even for relatively small aquaculture industries, and so a number of new breeding programs (companies or cooperatives) are likely to begin operation during the life of the Seafood CRC. Selective breeding is highly technical so that even the hands-on running of a breeding nucleus requires a high degree of specialist training. The business of selective breeding is relatively new in Australia and there is much to be learnt from experiences overseas.

The Seafood CRC believes Australian breeders could learn a lot from the experience of Nofima who have been providing genetic and breeding research services directly to breeding programs around the world for more than 30 years and who have established programs for Atlantic Salmon, Rainbow Trout, Atlantic Cod, Tilapia and other species that are now commercialised and recognised internationally.

This exchange program will benefit aquaculturists who are considering starting selective breeding programs or hatcheries to supply industry with stock and assistance with analysing data and making decisions about the selection and mating of selectively bred stock. The exchange program also will assist with the day-to-day operation of a nucleus or hatchery and those trying to run a profitable selective breeding or hatchery business

The program will also give owners, managers, geneticists and hatchery staff involved with selective breeding programs in Australia the opportunity to establish dialogue, cooperation and/or collaboration with international players on the selective breeding scene and Nofima can provide an insight into the development, strategies and running of successful international selective breeding businesses. Lastly, the exchange will help to educate those making decisions about selection and mating and will provide the latest technical developments overseas and how these might be adapted within Australia, whilst improving their basic knowledge about establishing, running and profiting from selective breeding.

Food safety validation of storage/transport temperatures for live Australian oyster species

Project number: 2007-406
Project Status:
Completed
Budget expenditure: $9,800.00
Principal Investigator: Andrew Pointon
Organisation: SARDI Food Safety and Innovation
Project start/end date: 21 Apr 2007 - 30 May 2007
Contact:
FRDC

Need

Industry faces a range of regulatory requirements for storage and transport of live oysters, notably: ASQAP stipulates colder than 10°C after 24 hours;
· current AQIS Export Control (Fish and Fish Products) Orders 2005 indicate that live oysters should be stored at 5°C UNLESS alternative storage arrangements can be validated and shown to not affect fitness for human consumption;
· NSW currently have a dispensation for colder than 25°C for 72 hours then colder than 15°C thereafter.

Objectives

1. Conduct a hazard identification to clarify the food safety risks that the myriad
2. Use the hazard identification to inform the technical interpretation of existing requirements with AQIS and NSW. Tasmanian and South Australian regulators and seek agreement on scientifically justifiable critical limits and define data gaps for validation of alternative temperature regimes.
3. Detail the scope of any research required.

Final report

Author: Andrew Pointon
Final Report • 2007-06-04 • 2.25 MB
2007-406-DLD.pdf

Summary

Apparent anomalies between the Australian Shellfish Quality Assurance Program (ASQAP) and the Export Control Orders stimulated the submission of FRDC Application TM003: Microbiological validation of current storage and transport temperatures for Pacific oyster industries in Australia. The application was approved conditional on wider industry involvement. Subsequently, the New South Wales industry identified the above dispensation and asked that it be considered within the proposal. 

A teleconference on Friday 23rd Feb with New South Wales, Tasmanian and South Australian industry representatives, NSW Food Authority and Seafood Services Australia considered a background paper canvassing the above issues; no representative of AQIS was available. The meeting determined that, as a prelude to deciding the scope of work designed to close information gaps on storage temperatures and times, a Hazard Identification be undertaken for Pacific oysters (Crassostrea gigas) and Sydney rock oysters (Saccostrea glomerata).

Project products

Report • 1.21 MB
2007-406-Product.pdf

Summary

Hazard Identification is defined as: The identification of biological, chemical and physical agents capable of causing adverse health effects and that may be present in a particular food or group of foods. 

It is an important aspect of both HACCP and risk assessment. HACCP Principle 1 involves listing potential hazards while Hazard Identification is the first of four stages in risk assessment for which, in effect, it represents a Go/No Go stage.

The aims of this investigation were to:
• Identify those microbiological hazards reasonably likely to occur in oyster harvest, storage and processing of Pacific and Sydney rock oysters.
• Document their involvement in outbreaks of illness for each species.
• Identify knowledge gaps which can be closed by research.
• Inform regulator and industry consultations.

Aquatic Animal Health Subprogram: NSW control centres manual (CCM) aquatic emergencies

Project number: 2003-644
Project Status:
Completed
Budget expenditure: $10,000.00
Principal Investigator: Damian Ogburn
Organisation: Department of Primary Industries and Regional Development (NSW)
Project start/end date: 14 Jun 2003 - 23 Jul 2004
Contact:
FRDC

Need

NSW has the need to adapt the National Control Centre Manual to suit NSW's conditions and species cultured as well as the statutory and administrative framework within the state.

There is also a need to conform to the national arrangements for Commonwealth/State/Territory communication, liaison and coordination in aquatic animal disease emergencies.

The publication and supporting database should also be in a form and style that allows for simplicity and ease of use in awareness, training and simulation activities.

Objectives

1. Provide a documented framework that will assist to improve awareness and ownership of NSW aquatic animal disease planning and management arrangements among participants, in both the public and private sectors, through development, testing and production of an appropriate derivation of the AQUAVETPLAN Control Centre.
2. Provide a resource to management and operation staff involved in aquatic animal emergency management and response.
3. To ensure conformity to the current "whole of government" approach to public safety risk management and consistency with New South Wales emergency management legislation and arrangements.
4. To facilitate effective communication and information management in aquatic animal disease emergency operations.
5. To ensure suitability of the product for use in related awareness, training and simulation activities.
6. To identify any inconsistencies and or gaps in the existing AQAVETPLAN control centres management manual as they relate to New South Wales situation.

Analytical techniques for assessment of water quality, contamination and quality assurance in farmed Pacific oysters in SA

Project number: 2000-257
Project Status:
Completed
Budget expenditure: $387,864.00
Principal Investigator: Richard Bentham
Organisation: Flinders University
Project start/end date: 16 Oct 2000 - 29 May 2006
Contact:
FRDC
SPECIES

Need

1. 2nd highest priority (environment) of Aquaculture industry sector in SAFRAB 5 year R & D Strategy, development of analytical methods to enhance shellfish quality assurance.

2. 6th highest priority (quality assurance) of Aquaculture industry sector in SAFRAB 5 year R & D Strategy, assessment of suitable sites for coastal aquaculture.

3. National Research Priorities for Australian Fisheries and Aquaculture; program 2: Environmental Management, sub-program D: Pollution - impacts of terrestrial inputs.

4. National Research Priorities for Australian Fisheries and Aquaculture; program 3: Aquaculture Development, sub-program A: Aquaculture and the Environment, improved site selection issue.

5. FRDC's program 3 - Industry Development, Aquaculture Development, Market Development, and Quality.

Objectives

1. To develop sensitive tests using polymerase chain reaction (PCR) to detect a range of viruses of direct significance to human health directly from shellfish. The range would include hepatitis A virus, Norwalk virus, Astrovirus, and Adenovirus.
2. Assessment of coliphage concentrations, and indicator microorganisms as reliable tools for assessment of faecal contamination (Clostridium spp., Bacteroides spp. coliforms) in oyster tissues, and harvest water.
3. Assessment of faecal origin and contamination of oysters and harvest water by Gas-Chromatography-Mass Spectrometry analysis for faecal steroid profiles.
4. To adapt developed biochemical markers in blue mussel (M.edulis) to oysters as indicators of stress from adverse environmental conditions of microbial and chemical origin.
5. Combination and correlation of the above analytical techniques to provide a comprehensive assessment of the extent of contamination of oysters and their harvest waters by pathogens of faecal origin. These techniques would be more reliable than current faecal indicator techniques and allow accurate determination of closure safety zones.
6. Identification and validation of reliable, cost effective monitoring tools for quality assurance of farmed oysters, leases and closure safety zones applicable to South Australian waters.
7. To develop methodologies for quality assurance with national applicability to the oyster farming industry.
8. Assessment of the correlation between the presence of enteric virus nucleic acid with coliphage determinations from shellfish tissue and harvest water.

BCA: Development of an automated oyster grader

Project number: 1999-421.80
Project Status:
Completed
Budget expenditure: $6,050.00
Principal Investigator: Tony Kingston
Organisation: Fisheries Economics Research and Management Specialists (FERM)
Project start/end date: 2 Oct 2004 - 14 Dec 2004
Contact:
FRDC
SPECIES

Need

Commercial in confidence. To know more about this project please contact FRDC.

Objectives

Commercial in confidence

Development of an automated oyster grader

Project number: 1999-421
Project Status:
Completed
Budget expenditure: $40,000.00
Principal Investigator: Matthew L. Brown
Organisation: SED Shellfish Equipment Pty Ltd
Project start/end date: 17 Jan 1999 - 24 Dec 2004
Contact:
FRDC
SPECIES

Need

Commercial in confidence. To know more about this project please contact FRDC.

Objectives

Commercial in confidence

Development of a national biotoxin strategy

Project number: 1999-332
Project Status:
Completed
Budget expenditure: $64,970.00
Principal Investigator: Ken Lee
Organisation: Department of Primary Industries and Regions South Australia (PIRSA)
Project start/end date: 29 Jun 1999 - 14 Sep 2002
Contact:
FRDC

Need

The potential for poisoning events from biotoxin contamination of shellfish is a growing concern for all shellfish producers, aquaculture managers and the general public in Australia.

Outside of shellfish consumption, the occurrence of marine biotoxins has direct implications for human health for recreational users of the marine and coastal areas in which these blooms occur.

There are also implications for other seafood products which can accumulate biotoxins, as well as for ballast water management and the shipping sector, for general environmental protection / human health, and for sewage processors (as mentioned above, there are strong linkages between algal blooms and sewage output). However, the immediate concern for seafood industries is to assess the need to undertake sampling and monitoring programs in shellfish producing areas and to determine what risks exist for other seafood industries.

There is a genuine and urgent need to update the work undertaken in 1993, and supplement this work with additional information in order to develop a consistent national approach to biotoxin monitoring. The resulting monitoring strategy will be based on an appropriat and targeted sampling strategy, developed through an assessment of need and risk, in order to support the development and implementation of effective management regimes for the shellfish industry.

Objectives

1. To design a national biotoxin monitoring strategy, in consultation with government and industry, which provides an appropriate level of protection to the seafood industry and the consumer, against biotoxin contamination.
2. To assess the implications for public health from marine biotoxins.
3. To identify those organisms that pose a biotoxin threat to marine and estuarine shellfish in Australasian waters, and identify those Australian industries at risk.
4. To review existing biotoxin monitoring programs, phytoplankton surveillance, analytical expertise and recognition of program deficiencies.
5. To identify internationally recognised practices for the management of marine biotoxins in shellfish.
6. To identify gaps in current methodology for the identification and measurement of relevant biotoxins.
7. To determine a suitable protocol for consolidation, collation and analysis of data on biotoxins to support the development of predictive and management tools.

Final report

ISBN: 0-473-08391-4
Author: Ken Lee
Final Report • 2001-11-01 • 728.06 KB
1999-332-DLD.pdf

Summary

In Australia aquaculture and wild harvest of shellfish is an economically important and growing industry.  The safety of these products as a food source is of utmost importance from both public health and economic points of view.  One of the potential problems faced by shellfish growers is the contamination of their product with marine biotoxins.  These toxins are chemical compounds that are produced by specific naturally occurring marine microalgae. Most microalgae (often referred to as phytoplankton) are actually an important food source of the shellfish.  However, if biotoxins are produced they can induce human illness if contaminated shellfish are consumed.  This is not only a problem for commercially produced or harvested shellfish, but also for recreational and subsistence shellfish gatherers.

Biotoxins are not only a problem for Australia, as most coastal countries in the world have had, or have the potential for, problems with marine biotoxin contamination in shellfish.  In order to manage this problem, many countries have monitoring programs aimed at both the detection of the species of microalgae that produce the toxins, and at the detection of toxins in the shellfish.  Phytoplankton monitoring is a faster and cheaper test than shellfish flesh testing, and provides an early warning of the potential for contamination of shellfish with marine biotoxins.  However, the two types of testing need to be performed in conjunction with each other.  Internationally, food safety regulations are based on the levels of toxins in shellfish, and it is these results that should generally be used for regulatory decisions.  

Internationally the impacts of toxic microalgae on both public health and the economy are increasing in frequency, intensity and geographic distribution.  As aquaculture expands, and its importance as both food and income sources increases for many countries, it is expected that these impacts of marine biotoxins will also increase.  As international markets become more conscious of the safety of the foodstuffs they import, they impose safety regulations and can also impose non-trade barriers.  

Australia’s shellfish industry’s market has a large domestic component, worth approximately $90M per year.  There is, perhaps, less external pressure on Australia to manage these problems.  However the domestic consumers are no less important than overseas consumers, and hence there remains the need for protection from marine biotoxins.  There is a need for controls between states, just as there is a need for controls for exported product.  The proposed strategy is for a voluntary agreement between states, and spells out the acceptable monitoring programs, controls and regulations that must be met in order to ‘export’ shellfish to another signatory state.  This “model ordinance” is fairly well accepted as an international standard for shellfish safety, along with the European Union directives, which must be met in order to export shellfish to the EU. This proposed strategy is supported by a Model Australian National Marine Biotoxin Management Plan (Cawthron Report No. 646).

A marine biotoxin monitoring program is a long-term commitment to protecting the public health of shellfish consumers, understanding more about the shellfish resource and assisting the industry to growing into the future. It requires regulatory commitment at Federal and State government level to maintain and police biotoxin standards. 

Keywords: Biotoxins, aquaculture, shellfish, microalgae, monitoring programs.

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