55,275 results
Adoption
PROJECT NUMBER • 2017-233
PROJECT STATUS:
COMPLETED

Future Oysters CRC-P Communication and Adoption

The Future Oysters CRC-P project (CRC-P 2016-553805; Future Oysters) was funded by the Australian Government’s Business Cooperative Research Centres (CRC) Program, which is managed by the Department of Industry, Innovation and Science (DIIS). The Future Oysters CRC-P project was developed to...
ORGANISATION:
Australian Seafood Industries Pty Ltd (ASI)

Development of a process to manufacture powdered shark cartilage

Project number: 1992-125.11
Project Status:
Completed
Budget expenditure: $26,000.00
Principal Investigator: Craig Davis
Organisation: Department of Primary Industries (QLD)
Project start/end date: 29 Jun 1994 - 22 Jul 1997
Contact:
FRDC

Objectives

1. To develop a method for producing powdered shark cartilage on a pilot commercial scale.
2. To develop relevant tastes to assure product quality
3. To undertake market trials on quality assured pilot scale product
4. To determine the production costs of a full scale production

Final report

Author: Craig Davis
Final Report • 2017-09-29 • 2.46 MB
1992-125.22-DLD.pdf

Summary

This project was undertaken in collaboration with Pacific Export Services Queensland Pty Ltd and had the primary objective of developing a powdered shark cartilage product on a pilot commercial scale for the domestic and export markets. The investigations undertaken in this project required several discrete development steps: sourcing of the raw material, removal of excess flesh from the backbone, development of the drying, milling and packaging protocols, establishment of suitable quality manufacturing and testing procedures, and identification of the markets and market requirements. Considerable time and effort was committed to the development of the appropriate techniques and equipment necessary for the production of a quality powdered shark cartilage product. The procedure which is currently employed for shark cartilage powder manufacture involves a heat-pump drying process and a sequence of milling steps. The final product must maintain a low moisture content and produce a fine (<40µm) powder. Additionally, considerable expertise was developed in the handling of the powdered product, and in the further value-adding of the powder into encapsulated and tableted products. Although this project has concluded, the author has a keen interest in the product and in the potential for alternative uses of the shark cartilage. These uses include: treatments of various inflammatory ailments (e.g. arthritis), extraction of collagen or gelatin for the food or pharmaceutical industries, and extraction of chondroitin sulfate for use in corneal transportation media. This project has developed ideas also in the area of total utilisation of the shark, which includes such areas as leather, meat, offal and fin. The project has successfully developed a method for the manufacture of a fine white powder derived from the backbone of the shark. The commercial partner is very satisfied with the results and is keen to continue the development of the process and improvement of the product. Sales of the product in the domestic and international arenas have surpassed expectations.
Final Report • 2017-09-29 • 2.46 MB
1992-125.22-DLD.pdf

Summary

This project was undertaken in collaboration with Pacific Export Services Queensland Pty Ltd and had the primary objective of developing a powdered shark cartilage product on a pilot commercial scale for the domestic and export markets. The investigations undertaken in this project required several discrete development steps: sourcing of the raw material, removal of excess flesh from the backbone, development of the drying, milling and packaging protocols, establishment of suitable quality manufacturing and testing procedures, and identification of the markets and market requirements. Considerable time and effort was committed to the development of the appropriate techniques and equipment necessary for the production of a quality powdered shark cartilage product. The procedure which is currently employed for shark cartilage powder manufacture involves a heat-pump drying process and a sequence of milling steps. The final product must maintain a low moisture content and produce a fine (<40µm) powder. Additionally, considerable expertise was developed in the handling of the powdered product, and in the further value-adding of the powder into encapsulated and tableted products. Although this project has concluded, the author has a keen interest in the product and in the potential for alternative uses of the shark cartilage. These uses include: treatments of various inflammatory ailments (e.g. arthritis), extraction of collagen or gelatin for the food or pharmaceutical industries, and extraction of chondroitin sulfate for use in corneal transportation media. This project has developed ideas also in the area of total utilisation of the shark, which includes such areas as leather, meat, offal and fin. The project has successfully developed a method for the manufacture of a fine white powder derived from the backbone of the shark. The commercial partner is very satisfied with the results and is keen to continue the development of the process and improvement of the product. Sales of the product in the domestic and international arenas have surpassed expectations.
Final Report • 2017-09-29 • 2.46 MB
1992-125.22-DLD.pdf

Summary

This project was undertaken in collaboration with Pacific Export Services Queensland Pty Ltd and had the primary objective of developing a powdered shark cartilage product on a pilot commercial scale for the domestic and export markets. The investigations undertaken in this project required several discrete development steps: sourcing of the raw material, removal of excess flesh from the backbone, development of the drying, milling and packaging protocols, establishment of suitable quality manufacturing and testing procedures, and identification of the markets and market requirements. Considerable time and effort was committed to the development of the appropriate techniques and equipment necessary for the production of a quality powdered shark cartilage product. The procedure which is currently employed for shark cartilage powder manufacture involves a heat-pump drying process and a sequence of milling steps. The final product must maintain a low moisture content and produce a fine (<40µm) powder. Additionally, considerable expertise was developed in the handling of the powdered product, and in the further value-adding of the powder into encapsulated and tableted products. Although this project has concluded, the author has a keen interest in the product and in the potential for alternative uses of the shark cartilage. These uses include: treatments of various inflammatory ailments (e.g. arthritis), extraction of collagen or gelatin for the food or pharmaceutical industries, and extraction of chondroitin sulfate for use in corneal transportation media. This project has developed ideas also in the area of total utilisation of the shark, which includes such areas as leather, meat, offal and fin. The project has successfully developed a method for the manufacture of a fine white powder derived from the backbone of the shark. The commercial partner is very satisfied with the results and is keen to continue the development of the process and improvement of the product. Sales of the product in the domestic and international arenas have surpassed expectations.
Final Report • 2017-09-29 • 2.46 MB
1992-125.22-DLD.pdf

Summary

This project was undertaken in collaboration with Pacific Export Services Queensland Pty Ltd and had the primary objective of developing a powdered shark cartilage product on a pilot commercial scale for the domestic and export markets. The investigations undertaken in this project required several discrete development steps: sourcing of the raw material, removal of excess flesh from the backbone, development of the drying, milling and packaging protocols, establishment of suitable quality manufacturing and testing procedures, and identification of the markets and market requirements. Considerable time and effort was committed to the development of the appropriate techniques and equipment necessary for the production of a quality powdered shark cartilage product. The procedure which is currently employed for shark cartilage powder manufacture involves a heat-pump drying process and a sequence of milling steps. The final product must maintain a low moisture content and produce a fine (<40µm) powder. Additionally, considerable expertise was developed in the handling of the powdered product, and in the further value-adding of the powder into encapsulated and tableted products. Although this project has concluded, the author has a keen interest in the product and in the potential for alternative uses of the shark cartilage. These uses include: treatments of various inflammatory ailments (e.g. arthritis), extraction of collagen or gelatin for the food or pharmaceutical industries, and extraction of chondroitin sulfate for use in corneal transportation media. This project has developed ideas also in the area of total utilisation of the shark, which includes such areas as leather, meat, offal and fin. The project has successfully developed a method for the manufacture of a fine white powder derived from the backbone of the shark. The commercial partner is very satisfied with the results and is keen to continue the development of the process and improvement of the product. Sales of the product in the domestic and international arenas have surpassed expectations.
Final Report • 2017-09-29 • 2.46 MB
1992-125.22-DLD.pdf

Summary

This project was undertaken in collaboration with Pacific Export Services Queensland Pty Ltd and had the primary objective of developing a powdered shark cartilage product on a pilot commercial scale for the domestic and export markets. The investigations undertaken in this project required several discrete development steps: sourcing of the raw material, removal of excess flesh from the backbone, development of the drying, milling and packaging protocols, establishment of suitable quality manufacturing and testing procedures, and identification of the markets and market requirements. Considerable time and effort was committed to the development of the appropriate techniques and equipment necessary for the production of a quality powdered shark cartilage product. The procedure which is currently employed for shark cartilage powder manufacture involves a heat-pump drying process and a sequence of milling steps. The final product must maintain a low moisture content and produce a fine (<40µm) powder. Additionally, considerable expertise was developed in the handling of the powdered product, and in the further value-adding of the powder into encapsulated and tableted products. Although this project has concluded, the author has a keen interest in the product and in the potential for alternative uses of the shark cartilage. These uses include: treatments of various inflammatory ailments (e.g. arthritis), extraction of collagen or gelatin for the food or pharmaceutical industries, and extraction of chondroitin sulfate for use in corneal transportation media. This project has developed ideas also in the area of total utilisation of the shark, which includes such areas as leather, meat, offal and fin. The project has successfully developed a method for the manufacture of a fine white powder derived from the backbone of the shark. The commercial partner is very satisfied with the results and is keen to continue the development of the process and improvement of the product. Sales of the product in the domestic and international arenas have surpassed expectations.
Final Report • 2017-09-29 • 2.46 MB
1992-125.22-DLD.pdf

Summary

This project was undertaken in collaboration with Pacific Export Services Queensland Pty Ltd and had the primary objective of developing a powdered shark cartilage product on a pilot commercial scale for the domestic and export markets. The investigations undertaken in this project required several discrete development steps: sourcing of the raw material, removal of excess flesh from the backbone, development of the drying, milling and packaging protocols, establishment of suitable quality manufacturing and testing procedures, and identification of the markets and market requirements. Considerable time and effort was committed to the development of the appropriate techniques and equipment necessary for the production of a quality powdered shark cartilage product. The procedure which is currently employed for shark cartilage powder manufacture involves a heat-pump drying process and a sequence of milling steps. The final product must maintain a low moisture content and produce a fine (<40µm) powder. Additionally, considerable expertise was developed in the handling of the powdered product, and in the further value-adding of the powder into encapsulated and tableted products. Although this project has concluded, the author has a keen interest in the product and in the potential for alternative uses of the shark cartilage. These uses include: treatments of various inflammatory ailments (e.g. arthritis), extraction of collagen or gelatin for the food or pharmaceutical industries, and extraction of chondroitin sulfate for use in corneal transportation media. This project has developed ideas also in the area of total utilisation of the shark, which includes such areas as leather, meat, offal and fin. The project has successfully developed a method for the manufacture of a fine white powder derived from the backbone of the shark. The commercial partner is very satisfied with the results and is keen to continue the development of the process and improvement of the product. Sales of the product in the domestic and international arenas have surpassed expectations.
Industry
PROJECT NUMBER • 2017-171
PROJECT STATUS:
COMPLETED

Undertaking an audit and assessment of past Australian aquaculture research, development and extension for all species, to determine what factors led to successful or not successful development of the aquaculture species

This report presents the results of an FRDC project that audited research effort and industry adoption for aquaculture species in Australia and overseas. The goal was to identify opportunities and barriers for commercial aquaculture production. The study involved online surveys, one for scientists...
ORGANISATION:
CSIRO

SCRC: Understanding conditioning of Sydney Rock Oysters

Project number: 2012-713
Project Status:
Completed
Budget expenditure: $0.00
Principal Investigator: Abigail Elizur
Organisation: University of the Sunshine Coast (USC)
Project start/end date: 31 Jul 2012 - 30 Nov 2013
Contact:
FRDC

Need

The Sydney Rock Oyster (SRO) aquaculture industry is the largest and oldest aquaculture industry in NSW with annual revenue of approximately A$35 million (I&I NSW 2011). SRO breeding was initiated in 1990 through mass selection aiming to develop faster growing, winter mortality resistant lines (Nell et al. 2000). After five generations the average time to market size reduced by more than 12 months (Nell and Perkins 2005) and disease resistant lines were available. In 2004, the first progeny from 5th generation fast growing lines were distributed to oyster farmers in NSW. In comparison to wild-caught oysters, these stocks demonstrated clear differences in reproductive behaviour, which affected marketability in various estuaries throughout NSW (O’Connor and Dove 2011). While industry demand for selectively bred SRO remains strong (2011/2012 spat sales will exceed 20,000,000 and will form the basis of more than 20% of total production), these changes pose both challenges and opportunities for the entire SRO production cycle from the hatchery, where oysters in “ripe” reproductive condition are required for spawning, through to market where reproductive condition is a major determinant in “saleability”.

With the progression of the SRO breeding program from 3 “base” mass selected lines to 120 pair-mated families, investigation into the biology behind the altered condition index of selectively bred oysters is of great importance. Initially, there is a fundamental need for reproductive concurrency among lines to allow breeding. Secondly, genetic variability in reproductive condition offers the opportunity to manage marketability through the selection of lines whose characteristics suit market requirements.

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