34,051 results

Seafood CRC: oyster over-catch: cold shock treatment

Project number: 2010-734
Project Status:
Completed
Budget expenditure: $71,000.00
Principal Investigator: Bob Cox
Organisation: Tasmanian Oyster Research Council Ltd
Project start/end date: 31 Aug 2010 - 29 Dec 2010
Contact:
FRDC

Need

"Over-catch" (fouling) and pest species (oysters, barnacles, sea squirts, flatworms, mudworm) cost the Australian oyster industry an inestimable sum each year in grading and handling labour, product loss and reduced price due to unmarketable product. The pests are regionally specific, the issue is common across all growing areas and in all cases is a major financial burden. In NSW overcatch is currently treated through labour expensive heat treatment and stock management. The cost effectiveness of the alternate proposed treatment froms part of this proposal.

For example, oyster overcatch is one of the primary deterrents to interstate investment into Port Stephens, NSW which previously was a highly productive single species estuary. It is estimated that NSW production would be increased by 12.5% (GVP of almost $5m) through Marine Culture's use of a successful overcatch treatment in Port Stephens alone. Marine Culture propose to farm an output of 750,000 dozen Pacific Oysters off the area.

This project expands investigative research by NSW I&I (Heasman 2005) in which experimental, small scale cold shock trails “resulted in the death of advanced rock oyster over-catch in as little 5 seconds and complete mortality after exposure periods of 60 seconds and above. By contrast, no deaths nor discernable negative effects on the health and flesh condition of host Pacific oysters were detected for cold shock durations of up to 2 minutes”.

The project will include a more comprehensive range of oysters sizes and types, and fouling organisms. Further, and critically, the method needs to be assessed on a large scale under commercial operating environments to demonstrate practicality and cost effectiveness.

Objectives

1. Increased Australian oyster production and value
2. Enhanced oyster farming efficiencies and cost effectiveness
3. Make available relevant cold tolerance parameters for oyster, key fouling and pest species to the industry for uptake

Final report

Authors: Bob Cox Peter Kosmeyer Wayne O’Connor Michael Dove Kyle Johnstone
Final Report • 2012-06-01 • 2.94 MB
2010-734-DLD.pdf

Summary

The recruitment of fouling or pest organisms to cultured oysters and growing infrastructure imposes a major financial impost for oyster culture throughout Australia and serves as a particular deterrent to industry expansion in certain regions. Oyster farmers have a range of management options such as mechanical cleaning, drying or cooking to control fouling, but each option typically has its limitations. Cold-shock, through immersion in chilled (-12 to -16°C) hypersaline (180 - 200 g l-1 NaCl) baths, is a comparatively new technique that has demonstrated the potential to effectively control a range of pest species without adverse effect on the host oysters. Most notably, hypersaline cold-shock can be used to control subsequent natural oyster settlement known as “over-catch”.

A commercial scale, hypersaline, cold-shock bath, dubbed the “Super Salty Slush Puppy” was constructed to provide proof of concept of cold shock treatment for over-catch control. The cold shock bath was deployed to Port Stephens NSW where it was successfully used for both experimental and commercial scale biofouling treatment. In experimental scale laboratory trials, the cold tolerances of various size classes of both Sydney Rock Oysters (Saccostrea glomerata), Pacific Oysters (Crassostrea gigas) were assessed and tolerance estimates were determined. Overall cold shock tolerance in both species was size-dependent with smaller individuals succumbing faster. Comparatively, S. glomerata of up to commercial size were less tolerant of hypersaline cold-shock than C. gigas. Operating guidelines for cold shock treatment were developed - a period of 75 seconds immersion revealed 100% destruction of fouling over-catch oysters with no detrimental effects on the stock oysters. The effectiveness of cold shock in treating a range of additional pest species (barnacles, hairy mussels, flatworms etc) was confirmed. Cold-shock was found to be particularly destructive to “soft-bodied” pests such as flat worms and smaller organisms such as barnacles.

Based upon simple assumptions, the operating cost of treatment is $1,215 per 100,000 of 60 to 80 mm [top shell measurement] oysters, or, put another way, a cost of $4,200 for 345,600 sale size oysters with a $1m sale value. Even when capital costs are included, and assuming that other mitigation measures see the equipment used only once every four years, the cost per dozen for treatment works out at 3.4 cents per dozen.

SCRC: SCRC ITB : Operation Europe (Andrew Farquhar)

Project number: 2010-733.10
Project Status:
Completed
Budget expenditure: $0.00
Principal Investigator: Andrew Farquhar
Organisation: WHK Business Growth Pty Ltd
Project start/end date: 14 Apr 2010 - 29 Apr 2010
Contact:
FRDC

Final report

ISBN: 978-1-925982-89-3
Author: Andrew Farquhar
Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

Final Report • 2010-04-30 • 197.87 KB
2010-733.10-DLD.pdf

Summary

The Collaborate Seafood Processing Facility project (Collaborative Project) being undertaken by the Seafood CRC and Cleanseas Tuna Ltd was investigating the feasibility of building a best proactive collaborative processing cluster in Australia in order to deliver a seafood basket to customers from a single, efficient and productive facility. As part of the Collaborative Project, various case studies were undertaken to demonstrate to participants the possible outcomes and benefits of developing a collaborative cluster. These case studies included the seafood cluster in Grimsby in the UK and the tulip industry in the Netherlands.

A video interview was taken with a representative of the Grimsby cluster at a seafood fair in Brussels. Key learning from the approach taken in Grimsby showed the importance of being industry led, having a common vision and establishing a driver for change and innovation.

At the Brussels Seafood Fair, many new and innovative products were displayed which demonstrated the potential for value added processing within Australia. In addition, conversations with various processors and marketers also underlined the potential for value adding within the industry from a collaborative cluster in Australia. Andrew also visited the tulip farming, processing and marketing collaborative cluster in the Netherlands. Key knowledge was gained from this visit on the subjects of marketing, logistics, innovation and management.

The last visit was to Boulogne-sur-Mer in France on the English Channel. This seafood collaborative cluster processes 360,000 tonnes of seafood every year; double that of Australia's total seafood production. Logistics companies, technical education, research establishments, a market and processors were all co-located in the collaborative cluster and knowledge was gained from this visit regarding government support and collaboration.

SCRC: SCRC ITB: Operation Europe

Project number: 2010-733
Project Status:
Completed
Budget expenditure: $0.00
Principal Investigator: William Ferguson
Organisation: Ferguson Australia Pty Ltd
Project start/end date: 14 Apr 2010 - 29 Apr 2010
Contact:
FRDC

Final report

ISBN: 978-1-925983-14-2
Author: William Ferguson
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research
Final Report • 2010-04-30 • 114.77 KB
2010-733-DLD.pdf

Summary

Due to the Volcano issues at the time the trip was cut short to just the European seafood show. I attended the show for the duration where I visited a lot of stands both for products and equipment. I also spent some time on the Australian stand where I helped and assisted when needed. Outcomes achieved to date are:

  • Photo evidence of new packaging and processing equipment
  • Company and product info for equipment
  • Met with current importers
  • General market research

SCRC: SCRC IB: The Australian National Business School/University of Western Australia “Business in Asia” course, Penang, Malaysia

Project number: 2010-732
Project Status:
Completed
Budget expenditure: $0.00
Principal Investigator: Basil Lenzo
Organisation: Lenzo Fishing Pty Ltd
Project start/end date: 30 Apr 2010 - 31 Jul 2010
Contact:
FRDC

Final report

ISBN: 978-1-925982-94-7
Author: Basil Lenzo
Final Report • 2010-08-01 • 1.21 MB
2010-732-DLD.pdf

Summary

The objective of this report was to ascertain the feasibility for the Geraldton Fishermen's Co-operative (GFC) to export Western Australian Western Rock Lobsters (Panulirus cygnus) into the new and emerging market opportunities of India at a comparative price premium when benchmarked against other Asian nations such as China (presently Australia's largest Lobster customer).

In order to pursue a competitive advantage in this emerging market, it is proposed the company adopt a "first-mover" strategy. This is based on the findings within the preliminary report that indicates that a majority of the qualitative and quantitative factors such as population demographics, logistics, government political and legal policies such as bilateral trade agreements and language barriers were at least as favourable to export to India as other existing Asian customers.

That said, less definable qualitative factors such as culture, religion and ultimately consumer acceptance not only of an imported product but more importantly the willingness to pay a "price premium‟ similar to Asian competitors such as China and Japan can only be gauged by testing the market.

SCRC: Industry Bursary Oyster Consortium Members - group study tour to New Zealand (Ian Duthie)

Project number: 2010-730
Project Status:
Completed
Budget expenditure: $0.00
Principal Investigator: Rachel King
Organisation: Montagu Tas Oysters
Project start/end date: 31 May 2010 - 31 May 2011
Contact:
FRDC

Final report

ISBN: 978-1-925982-64-0
Author: Ian Duthie
Final Report • 2011-06-01 • 2.32 MB
2010-730-DLD-IB.pdf

Summary

This study tour sought to expand our understanding of the New Zealand shellfish industry with particular focus upon the oyster industry and why/how they are able to effectively export NZ$16.9 million worth of oysters overseas, much of it value added. The Australia market receives 75.1% of this production, mostly as frozen half shell. Participants involved in the study group possessed experience across a broad section of the Australian oyster industry from hatchery/nursery/grow--‐out, marketing, research and development. This enabled them to evaluate the growing methodology, environment, and structure of the New Zealand oyster industry.

The tour group comprised of a good mix of grassroots producers, new industry entrants, second generation, oyster researcher and hatchery operators. This enabled a full dissection of the structure of the NZ industry, and identification of advantages and disadvantages they possess. The opportunity to view the way the mussel industry is structured and operates also proved to be insightful, with possible linkages to the future development of the Australian oyster industry. This study tour provided the opportunity for the group to “look outside of the box”, to a country with a very similar demographic and political structure, but which is able to deliver with value adding and a strong export focus; to develop an understanding of why and how the NZ industry has been able to achieve this will provide for great opportunities for the Australian oyster industry, and the individual members of the group.

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SCRC: PhD 6.06 – Capturing and maintaining genetic variation when initiating selective breeding programs for aquaculture

Project number: 2010-725
Project Status:
Completed
Budget expenditure: $0.00
Principal Investigator: Nicholas A. Robinson
Organisation: Flinders University
Project start/end date: 31 Mar 2010 - 31 Mar 2013
Contact:
FRDC

Need

Industry need:
The following projects have stated the need for establishing sustainable selective breeding programs;
• Development of a genetic management and improvement strategy for temperate marine finfish (2008/723).
• Scope and economic analysis of options for a nationally unified breeding program for abalone aquaculture (2008/722).
• Development of a genetic management strategy for cultured Barramundi (2008/758).

Final report

ISBN: 978-1-925982-92-3
Author: Shannon Loughnan
Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

Final Report • 2013-04-01 • 4.65 MB
2010-725-DLD-PhD.pdf

Summary

Barramundi is naturally a mass spawning species, which can be induced to spawn in captivity under conditions that attempt to replicate the natural environment. The Australian Barramundi industry has on hand a large number of mature broodstock that are currently supplying the grow-out market, however, before selective breeding programs can begin, it is important to assess the levels of genetic diversity and relatedness of current captive broodstock populations.

Mass spawning hatchery practices using small broodstock populations, in addition to the cannibalistic nature of some fish species, contribute to a reduction of genetic diversity from parent to offspring and throughout the juvenile grow-out stages. This is of concern when establishing a selective breeding program for such species because the genetic diversity that is captured in the start-up and initial generations of the program is the basic ingredient for future genetic improvement. The aim of this thesis was to examine methods for capturing and conserving genetic diversity in mass spawning Barramundi (Lates calcarifer), when constructing a base population for a long-term selective breeding program for the species.

The results suggest that a mass spawning group of at least 30 Barramundi individuals is required to achieve a high participation rate of breeders and to limit the loss of genetic variation transferred to the offspring. Options for selecting candidates to compose a founding population were explored, and recommendations made to promote the longevity and impact of a selective breeding program for Barramundi.

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