6,432 results
Industry
PROJECT NUMBER • 2008-905
PROJECT STATUS:
COMPLETED

Seafood CRC: Australian seafood compositional profiles portal

There is a need for information in the correct format of the nutritional profiles of seafood species to enable seafood producers to meet customer-based and regulatory needs. This project gathered nutritional compositional profiles for proximate composition, fatty acids, water and fat-soluble...
ORGANISATION:
SARDI Food Safety and Innovation

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.

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.

SCRC: SCRC RTG: Dr Barbara Nowak "Research exchange to the University of Edinburgh and the University of Stirling"

Project number: 2009-719
Project Status:
Completed
Budget expenditure: $0.00
Principal Investigator: Barbara Nowak
Organisation: University of Tasmania (UTAS)
Project start/end date: 4 May 2009 - 30 Jul 2009
Contact:
FRDC

Final report

ISBN: 978-1-925982-58-9
Author: Barbara Nowak
Final Report • 2009-07-31 • 360.11 KB
2009-719-DLD.pdf

Summary

The purpose of this travel grant was to conduct collaborative research to:

  • Investigate gene expression in early amoebic gill disease (AGD), including gene expression in different cell types to investigate AGD pathogenesis using metabonomics and assess further applications of metabonomics to fish health research
  • Compare Neoparamoeba perurans strains in Scotland and Tasmania
  • Develop collaborations with various UK academic staff from multiple institutions around the UK such as Centre for Environment Fisheries and Aquaculture Science, Stirling University, the University of Edinburgh, and Imperial College London.

This travel grant allowed the author to visit three salmon farms in Scotland – two Marine Harvest sites and one Scottish Salmon farm. A number of salmon were examined; however none of the farms had AGD outbreaks at the time of the visit. Collaboration was established with Marine Harvest to ensure availability of infected material from future AGD outbreaks.

The author visited Dr Jeremy Griffin at Cambridge University and Dr Jake Bundy at Imperial College London to discuss preliminary results for metabonomics from AGD infected salmon. These meetings were very fruitful, provided a lot of technical information and will most likely result in long term collaboration with Dr Jake Bundy. Preliminary results suggest that AGD infected fish can be differentiated from controls on the basis of their metabolite profile, at least in the later stages of the disease.

Future collaboration in the area of the use of immunostimulants in aquaculture was established with Dr Chris Gould and Dr Patrick Smith from Intervet Schering Plough and Prof Sandra Adams and Dr Kim Thompson from Stirling University. Dr Patrick Smith is following up similar testing of novel immunostimulants developed by University College Hospital Medical School in London. Collaboration was established with French researchers (Dr Philippe Sourd's group) investigating health of farmed Sea Bream and Sea Bass, AGD was diagnosed in some of their fish and this research was a joint presentation at EAFP conference and a publication.

Industry
PROJECT NUMBER • 2017-169
PROJECT STATUS:
COMPLETED

Assessing the nutritional value of Australian Barramundi

Farmed Australian barramundi (Lates calcarifer) is a reasonably well-recognised fish product in the Australian marketplace, however, its nutritional value and health benefits compared to other animal protein and seafoods is not quantified and widely known by consumers. This study assessed the...
ORGANISATION:
James Cook University (JCU)
SPECIES

Determination of geographical structure of breeding population in several species of commercial fish

Project number: 1976-007
Project Status:
Completed
Budget expenditure: $0.00
Principal Investigator: Barry Richardson
Organisation: Australian National University (ANU)
Project start/end date: 28 Dec 1980 - 31 Dec 1980
Contact:
FRDC

Objectives

1. Gain a basic understanding of the genetic structure of certain fish populations and the relationships between fish stocks in different areas around Australia

Final report

Author: B.J. Richardson and M. MacDonald
Final Report • 7.71 MB
1976-007-DLD.pdf

Summary

The study collected liver tissue samples from Australian Salmon in various states to analyze their genetic variation and population structure. The results showed low levels of genetic diversity in western salmon and only one useful marker system for population structure analysis. The tests revealed no significant differences in genders or age classes, and no significant geographical heterogeneity. The coefficient of kinship was used to measure breeding and was plotted against geographic distance to obtain a visual summary of the salmon's spatial breeding structure. Overall, the study suggests that there is little genetic differentiation between populations of Australian salmon in different regions.
Industry
PROJECT NUMBER • 2018-097
PROJECT STATUS:
COMPLETED

Survey of Enterprise-level Biosecurity across the Australian Aquaculture Industry

The Australian Government Department of Agriculture and Water Resources (the department) commissioned the independent research company Instinct and Reason to conduct a survey aimed at farm owners/managers in the Australian aquaculture industry. The survey aimed to investigate the level of...
ORGANISATION:
Instinct and Reason
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