263 results
Environment
PROJECT NUMBER • 2013-026
PROJECT STATUS:
COMPLETED

Can commercial harvest of long-spined sea urchins reduce the impact of urchin grazing on abalone and lobster fisheries?

At low-levels of exploitation, commercial harvesting of long-spined sea urchins was found to prevent increase in urchin density. Adjacent unfished locations experienced an increase in both urchin density and grazed area over the 2014 – 2016 study period. Research sampling of populations...
ORGANISATION:
University of Tasmania (UTAS)
Environment
PROJECT NUMBER • 2013-025
PROJECT STATUS:
COMPLETED

Assessing post-release survival of Southern Bluefin Tuna from recreational fishing

Southern Bluefin Tuna (SBT) are an important component of the recreational game fishery in Australia. Recreational fishers in waters around South Australia, Victoria, Tasmania and New South Wales catch this species seasonally. Each state respectively is responsible for the management of this...
ORGANISATION:
University of Tasmania (UTAS)
Blank

Seafood CRC: Aquaculture Production Innovation Hub: Phase II – communication, extension and opportunities

Project number: 2012-756
Project Status:
Completed
Budget expenditure: $110,520.34
Principal Investigator: Jennifer Blair
Organisation: University of Tasmania (UTAS)
Project start/end date: 30 Sep 2012 - 29 Jun 2014
Contact:
FRDC

Need

The Seafood CRC has made considerable investment in a diverse range of aquaculture production projects. The research has been prioritised and driven by industry needs, and it is critical to ensure the research outputs are communicated to industry. This is particularly the case where projects may be largely focussed on one species or one industry sector, yet have broader relevance and application among Seafood CRC participants. Selected key extension activities for the ‘Finfish’ and ‘Breeding for Profit’ Themes of the SfCRC Production Innovation Program have been built into this project.

Objectives

1. Improve communication and increase collaboration among aquaculture producers and researchers
2. Delivery of key extension activities for the ‘Finfish’ and ‘Breeding for Profit’ Themes of the SfCRC Production Innovation Program
3. Develop a plan for continuation of successful communication activities beyond the life of the Seafood CRC

Final report

ISBN: Jennifer Cobcroft
Author: Jennifer Cobcroft
Final Report • 2015-04-01 • 4.27 MB
2012-756-DLD.pdf

Summary

This project was a continuation of the Aquaculture Innovation Hub (Project 2008/902). The Phase II Hub focussed on research extension activities in the finfish, crustacean and shellfish sectors and on increasing trans-Tasman communications among aquaculture producers and researchers.

The Phase II Hub conducted four workshops for national and international participants to communicate recent research findings and technology developments for marine hatcheries, enhance understanding of community engagement and discuss aquaculture spatial planning processes. Novel communication platforms were trialled with two editions of the What’s Hatching talking news and a webinar on social acceptability of the fishing industry and aquaculture.

The Hub supported technical exchanges for two shellfish industry representatives to improve understanding of hatchery operations and improved hatchery management practices in water treatment and larval feeds have been applied in shellfish, crustaceans and finfish as a result of Hub activities. New Zealand and Australian researchers and industry have refined approaches to understanding the social acceptance of aquaculture and community engagement through the trans-Tasman workshops and the network of aquaculture producers, research and regulators has been strengthened.

Final Report • 2015-04-01 • 4.27 MB
2012-756-DLD.pdf

Summary

This project was a continuation of the Aquaculture Innovation Hub (Project 2008/902). The Phase II Hub focussed on research extension activities in the finfish, crustacean and shellfish sectors and on increasing trans-Tasman communications among aquaculture producers and researchers.

The Phase II Hub conducted four workshops for national and international participants to communicate recent research findings and technology developments for marine hatcheries, enhance understanding of community engagement and discuss aquaculture spatial planning processes. Novel communication platforms were trialled with two editions of the What’s Hatching talking news and a webinar on social acceptability of the fishing industry and aquaculture.

The Hub supported technical exchanges for two shellfish industry representatives to improve understanding of hatchery operations and improved hatchery management practices in water treatment and larval feeds have been applied in shellfish, crustaceans and finfish as a result of Hub activities. New Zealand and Australian researchers and industry have refined approaches to understanding the social acceptance of aquaculture and community engagement through the trans-Tasman workshops and the network of aquaculture producers, research and regulators has been strengthened.

Final Report • 2015-04-01 • 4.27 MB
2012-756-DLD.pdf

Summary

This project was a continuation of the Aquaculture Innovation Hub (Project 2008/902). The Phase II Hub focussed on research extension activities in the finfish, crustacean and shellfish sectors and on increasing trans-Tasman communications among aquaculture producers and researchers.

The Phase II Hub conducted four workshops for national and international participants to communicate recent research findings and technology developments for marine hatcheries, enhance understanding of community engagement and discuss aquaculture spatial planning processes. Novel communication platforms were trialled with two editions of the What’s Hatching talking news and a webinar on social acceptability of the fishing industry and aquaculture.

The Hub supported technical exchanges for two shellfish industry representatives to improve understanding of hatchery operations and improved hatchery management practices in water treatment and larval feeds have been applied in shellfish, crustaceans and finfish as a result of Hub activities. New Zealand and Australian researchers and industry have refined approaches to understanding the social acceptance of aquaculture and community engagement through the trans-Tasman workshops and the network of aquaculture producers, research and regulators has been strengthened.

Final Report • 2015-04-01 • 4.27 MB
2012-756-DLD.pdf

Summary

This project was a continuation of the Aquaculture Innovation Hub (Project 2008/902). The Phase II Hub focussed on research extension activities in the finfish, crustacean and shellfish sectors and on increasing trans-Tasman communications among aquaculture producers and researchers.

The Phase II Hub conducted four workshops for national and international participants to communicate recent research findings and technology developments for marine hatcheries, enhance understanding of community engagement and discuss aquaculture spatial planning processes. Novel communication platforms were trialled with two editions of the What’s Hatching talking news and a webinar on social acceptability of the fishing industry and aquaculture.

The Hub supported technical exchanges for two shellfish industry representatives to improve understanding of hatchery operations and improved hatchery management practices in water treatment and larval feeds have been applied in shellfish, crustaceans and finfish as a result of Hub activities. New Zealand and Australian researchers and industry have refined approaches to understanding the social acceptance of aquaculture and community engagement through the trans-Tasman workshops and the network of aquaculture producers, research and regulators has been strengthened.

Final Report • 2015-04-01 • 4.27 MB
2012-756-DLD.pdf

Summary

This project was a continuation of the Aquaculture Innovation Hub (Project 2008/902). The Phase II Hub focussed on research extension activities in the finfish, crustacean and shellfish sectors and on increasing trans-Tasman communications among aquaculture producers and researchers.

The Phase II Hub conducted four workshops for national and international participants to communicate recent research findings and technology developments for marine hatcheries, enhance understanding of community engagement and discuss aquaculture spatial planning processes. Novel communication platforms were trialled with two editions of the What’s Hatching talking news and a webinar on social acceptability of the fishing industry and aquaculture.

The Hub supported technical exchanges for two shellfish industry representatives to improve understanding of hatchery operations and improved hatchery management practices in water treatment and larval feeds have been applied in shellfish, crustaceans and finfish as a result of Hub activities. New Zealand and Australian researchers and industry have refined approaches to understanding the social acceptance of aquaculture and community engagement through the trans-Tasman workshops and the network of aquaculture producers, research and regulators has been strengthened.

Final Report • 2015-04-01 • 4.27 MB
2012-756-DLD.pdf

Summary

This project was a continuation of the Aquaculture Innovation Hub (Project 2008/902). The Phase II Hub focussed on research extension activities in the finfish, crustacean and shellfish sectors and on increasing trans-Tasman communications among aquaculture producers and researchers.

The Phase II Hub conducted four workshops for national and international participants to communicate recent research findings and technology developments for marine hatcheries, enhance understanding of community engagement and discuss aquaculture spatial planning processes. Novel communication platforms were trialled with two editions of the What’s Hatching talking news and a webinar on social acceptability of the fishing industry and aquaculture.

The Hub supported technical exchanges for two shellfish industry representatives to improve understanding of hatchery operations and improved hatchery management practices in water treatment and larval feeds have been applied in shellfish, crustaceans and finfish as a result of Hub activities. New Zealand and Australian researchers and industry have refined approaches to understanding the social acceptance of aquaculture and community engagement through the trans-Tasman workshops and the network of aquaculture producers, research and regulators has been strengthened.

Final Report • 2015-04-01 • 4.27 MB
2012-756-DLD.pdf

Summary

This project was a continuation of the Aquaculture Innovation Hub (Project 2008/902). The Phase II Hub focussed on research extension activities in the finfish, crustacean and shellfish sectors and on increasing trans-Tasman communications among aquaculture producers and researchers.

The Phase II Hub conducted four workshops for national and international participants to communicate recent research findings and technology developments for marine hatcheries, enhance understanding of community engagement and discuss aquaculture spatial planning processes. Novel communication platforms were trialled with two editions of the What’s Hatching talking news and a webinar on social acceptability of the fishing industry and aquaculture.

The Hub supported technical exchanges for two shellfish industry representatives to improve understanding of hatchery operations and improved hatchery management practices in water treatment and larval feeds have been applied in shellfish, crustaceans and finfish as a result of Hub activities. New Zealand and Australian researchers and industry have refined approaches to understanding the social acceptance of aquaculture and community engagement through the trans-Tasman workshops and the network of aquaculture producers, research and regulators has been strengthened.

Final Report • 2015-04-01 • 4.27 MB
2012-756-DLD.pdf

Summary

This project was a continuation of the Aquaculture Innovation Hub (Project 2008/902). The Phase II Hub focussed on research extension activities in the finfish, crustacean and shellfish sectors and on increasing trans-Tasman communications among aquaculture producers and researchers.

The Phase II Hub conducted four workshops for national and international participants to communicate recent research findings and technology developments for marine hatcheries, enhance understanding of community engagement and discuss aquaculture spatial planning processes. Novel communication platforms were trialled with two editions of the What’s Hatching talking news and a webinar on social acceptability of the fishing industry and aquaculture.

The Hub supported technical exchanges for two shellfish industry representatives to improve understanding of hatchery operations and improved hatchery management practices in water treatment and larval feeds have been applied in shellfish, crustaceans and finfish as a result of Hub activities. New Zealand and Australian researchers and industry have refined approaches to understanding the social acceptance of aquaculture and community engagement through the trans-Tasman workshops and the network of aquaculture producers, research and regulators has been strengthened.

Final Report • 2015-04-01 • 4.27 MB
2012-756-DLD.pdf

Summary

This project was a continuation of the Aquaculture Innovation Hub (Project 2008/902). The Phase II Hub focussed on research extension activities in the finfish, crustacean and shellfish sectors and on increasing trans-Tasman communications among aquaculture producers and researchers.

The Phase II Hub conducted four workshops for national and international participants to communicate recent research findings and technology developments for marine hatcheries, enhance understanding of community engagement and discuss aquaculture spatial planning processes. Novel communication platforms were trialled with two editions of the What’s Hatching talking news and a webinar on social acceptability of the fishing industry and aquaculture.

The Hub supported technical exchanges for two shellfish industry representatives to improve understanding of hatchery operations and improved hatchery management practices in water treatment and larval feeds have been applied in shellfish, crustaceans and finfish as a result of Hub activities. New Zealand and Australian researchers and industry have refined approaches to understanding the social acceptance of aquaculture and community engagement through the trans-Tasman workshops and the network of aquaculture producers, research and regulators has been strengthened.

Final Report • 2015-04-01 • 4.27 MB
2012-756-DLD.pdf

Summary

This project was a continuation of the Aquaculture Innovation Hub (Project 2008/902). The Phase II Hub focussed on research extension activities in the finfish, crustacean and shellfish sectors and on increasing trans-Tasman communications among aquaculture producers and researchers.

The Phase II Hub conducted four workshops for national and international participants to communicate recent research findings and technology developments for marine hatcheries, enhance understanding of community engagement and discuss aquaculture spatial planning processes. Novel communication platforms were trialled with two editions of the What’s Hatching talking news and a webinar on social acceptability of the fishing industry and aquaculture.

The Hub supported technical exchanges for two shellfish industry representatives to improve understanding of hatchery operations and improved hatchery management practices in water treatment and larval feeds have been applied in shellfish, crustaceans and finfish as a result of Hub activities. New Zealand and Australian researchers and industry have refined approaches to understanding the social acceptance of aquaculture and community engagement through the trans-Tasman workshops and the network of aquaculture producers, research and regulators has been strengthened.

Final Report • 2015-04-01 • 4.27 MB
2012-756-DLD.pdf

Summary

This project was a continuation of the Aquaculture Innovation Hub (Project 2008/902). The Phase II Hub focussed on research extension activities in the finfish, crustacean and shellfish sectors and on increasing trans-Tasman communications among aquaculture producers and researchers.

The Phase II Hub conducted four workshops for national and international participants to communicate recent research findings and technology developments for marine hatcheries, enhance understanding of community engagement and discuss aquaculture spatial planning processes. Novel communication platforms were trialled with two editions of the What’s Hatching talking news and a webinar on social acceptability of the fishing industry and aquaculture.

The Hub supported technical exchanges for two shellfish industry representatives to improve understanding of hatchery operations and improved hatchery management practices in water treatment and larval feeds have been applied in shellfish, crustaceans and finfish as a result of Hub activities. New Zealand and Australian researchers and industry have refined approaches to understanding the social acceptance of aquaculture and community engagement through the trans-Tasman workshops and the network of aquaculture producers, research and regulators has been strengthened.

Final Report • 2015-04-01 • 4.27 MB
2012-756-DLD.pdf

Summary

This project was a continuation of the Aquaculture Innovation Hub (Project 2008/902). The Phase II Hub focussed on research extension activities in the finfish, crustacean and shellfish sectors and on increasing trans-Tasman communications among aquaculture producers and researchers.

The Phase II Hub conducted four workshops for national and international participants to communicate recent research findings and technology developments for marine hatcheries, enhance understanding of community engagement and discuss aquaculture spatial planning processes. Novel communication platforms were trialled with two editions of the What’s Hatching talking news and a webinar on social acceptability of the fishing industry and aquaculture.

The Hub supported technical exchanges for two shellfish industry representatives to improve understanding of hatchery operations and improved hatchery management practices in water treatment and larval feeds have been applied in shellfish, crustaceans and finfish as a result of Hub activities. New Zealand and Australian researchers and industry have refined approaches to understanding the social acceptance of aquaculture and community engagement through the trans-Tasman workshops and the network of aquaculture producers, research and regulators has been strengthened.

Final Report • 2015-04-01 • 4.27 MB
2012-756-DLD.pdf

Summary

This project was a continuation of the Aquaculture Innovation Hub (Project 2008/902). The Phase II Hub focussed on research extension activities in the finfish, crustacean and shellfish sectors and on increasing trans-Tasman communications among aquaculture producers and researchers.

The Phase II Hub conducted four workshops for national and international participants to communicate recent research findings and technology developments for marine hatcheries, enhance understanding of community engagement and discuss aquaculture spatial planning processes. Novel communication platforms were trialled with two editions of the What’s Hatching talking news and a webinar on social acceptability of the fishing industry and aquaculture.

The Hub supported technical exchanges for two shellfish industry representatives to improve understanding of hatchery operations and improved hatchery management practices in water treatment and larval feeds have been applied in shellfish, crustaceans and finfish as a result of Hub activities. New Zealand and Australian researchers and industry have refined approaches to understanding the social acceptance of aquaculture and community engagement through the trans-Tasman workshops and the network of aquaculture producers, research and regulators has been strengthened.

Final Report • 2015-04-01 • 4.27 MB
2012-756-DLD.pdf

Summary

This project was a continuation of the Aquaculture Innovation Hub (Project 2008/902). The Phase II Hub focussed on research extension activities in the finfish, crustacean and shellfish sectors and on increasing trans-Tasman communications among aquaculture producers and researchers.

The Phase II Hub conducted four workshops for national and international participants to communicate recent research findings and technology developments for marine hatcheries, enhance understanding of community engagement and discuss aquaculture spatial planning processes. Novel communication platforms were trialled with two editions of the What’s Hatching talking news and a webinar on social acceptability of the fishing industry and aquaculture.

The Hub supported technical exchanges for two shellfish industry representatives to improve understanding of hatchery operations and improved hatchery management practices in water treatment and larval feeds have been applied in shellfish, crustaceans and finfish as a result of Hub activities. New Zealand and Australian researchers and industry have refined approaches to understanding the social acceptance of aquaculture and community engagement through the trans-Tasman workshops and the network of aquaculture producers, research and regulators has been strengthened.

Final Report • 2015-04-01 • 4.27 MB
2012-756-DLD.pdf

Summary

This project was a continuation of the Aquaculture Innovation Hub (Project 2008/902). The Phase II Hub focussed on research extension activities in the finfish, crustacean and shellfish sectors and on increasing trans-Tasman communications among aquaculture producers and researchers.

The Phase II Hub conducted four workshops for national and international participants to communicate recent research findings and technology developments for marine hatcheries, enhance understanding of community engagement and discuss aquaculture spatial planning processes. Novel communication platforms were trialled with two editions of the What’s Hatching talking news and a webinar on social acceptability of the fishing industry and aquaculture.

The Hub supported technical exchanges for two shellfish industry representatives to improve understanding of hatchery operations and improved hatchery management practices in water treatment and larval feeds have been applied in shellfish, crustaceans and finfish as a result of Hub activities. New Zealand and Australian researchers and industry have refined approaches to understanding the social acceptance of aquaculture and community engagement through the trans-Tasman workshops and the network of aquaculture producers, research and regulators has been strengthened.

Final Report • 2015-04-01 • 4.27 MB
2012-756-DLD.pdf

Summary

This project was a continuation of the Aquaculture Innovation Hub (Project 2008/902). The Phase II Hub focussed on research extension activities in the finfish, crustacean and shellfish sectors and on increasing trans-Tasman communications among aquaculture producers and researchers.

The Phase II Hub conducted four workshops for national and international participants to communicate recent research findings and technology developments for marine hatcheries, enhance understanding of community engagement and discuss aquaculture spatial planning processes. Novel communication platforms were trialled with two editions of the What’s Hatching talking news and a webinar on social acceptability of the fishing industry and aquaculture.

The Hub supported technical exchanges for two shellfish industry representatives to improve understanding of hatchery operations and improved hatchery management practices in water treatment and larval feeds have been applied in shellfish, crustaceans and finfish as a result of Hub activities. New Zealand and Australian researchers and industry have refined approaches to understanding the social acceptance of aquaculture and community engagement through the trans-Tasman workshops and the network of aquaculture producers, research and regulators has been strengthened.

Final Report • 2015-04-01 • 4.27 MB
2012-756-DLD.pdf

Summary

This project was a continuation of the Aquaculture Innovation Hub (Project 2008/902). The Phase II Hub focussed on research extension activities in the finfish, crustacean and shellfish sectors and on increasing trans-Tasman communications among aquaculture producers and researchers.

The Phase II Hub conducted four workshops for national and international participants to communicate recent research findings and technology developments for marine hatcheries, enhance understanding of community engagement and discuss aquaculture spatial planning processes. Novel communication platforms were trialled with two editions of the What’s Hatching talking news and a webinar on social acceptability of the fishing industry and aquaculture.

The Hub supported technical exchanges for two shellfish industry representatives to improve understanding of hatchery operations and improved hatchery management practices in water treatment and larval feeds have been applied in shellfish, crustaceans and finfish as a result of Hub activities. New Zealand and Australian researchers and industry have refined approaches to understanding the social acceptance of aquaculture and community engagement through the trans-Tasman workshops and the network of aquaculture producers, research and regulators has been strengthened.

Final Report • 2015-04-01 • 4.27 MB
2012-756-DLD.pdf

Summary

This project was a continuation of the Aquaculture Innovation Hub (Project 2008/902). The Phase II Hub focussed on research extension activities in the finfish, crustacean and shellfish sectors and on increasing trans-Tasman communications among aquaculture producers and researchers.

The Phase II Hub conducted four workshops for national and international participants to communicate recent research findings and technology developments for marine hatcheries, enhance understanding of community engagement and discuss aquaculture spatial planning processes. Novel communication platforms were trialled with two editions of the What’s Hatching talking news and a webinar on social acceptability of the fishing industry and aquaculture.

The Hub supported technical exchanges for two shellfish industry representatives to improve understanding of hatchery operations and improved hatchery management practices in water treatment and larval feeds have been applied in shellfish, crustaceans and finfish as a result of Hub activities. New Zealand and Australian researchers and industry have refined approaches to understanding the social acceptance of aquaculture and community engagement through the trans-Tasman workshops and the network of aquaculture producers, research and regulators has been strengthened.

Final Report • 2015-04-01 • 4.27 MB
2012-756-DLD.pdf

Summary

This project was a continuation of the Aquaculture Innovation Hub (Project 2008/902). The Phase II Hub focussed on research extension activities in the finfish, crustacean and shellfish sectors and on increasing trans-Tasman communications among aquaculture producers and researchers.

The Phase II Hub conducted four workshops for national and international participants to communicate recent research findings and technology developments for marine hatcheries, enhance understanding of community engagement and discuss aquaculture spatial planning processes. Novel communication platforms were trialled with two editions of the What’s Hatching talking news and a webinar on social acceptability of the fishing industry and aquaculture.

The Hub supported technical exchanges for two shellfish industry representatives to improve understanding of hatchery operations and improved hatchery management practices in water treatment and larval feeds have been applied in shellfish, crustaceans and finfish as a result of Hub activities. New Zealand and Australian researchers and industry have refined approaches to understanding the social acceptance of aquaculture and community engagement through the trans-Tasman workshops and the network of aquaculture producers, research and regulators has been strengthened.

SCRC: RTG: “R” Basic and Design and Analysis of Experiments Workshop, The University of Western Australia, Perth

Project number: 2012-751
Project Status:
Completed
Budget expenditure: $0.00
Principal Investigator: Kamarul Zarkasi
Organisation: University of Tasmania (UTAS)
Project start/end date: 26 Aug 2012 - 27 Feb 2013
Contact:
FRDC

Final report

ISBN: 978-1-925983-07-4
Author: Kamarul Zaman Zarkasi
Final Report • 2013-02-28 • 215.93 KB
2012-751-DLD-RTG.pdf

Summary

The research travel grant allowed a CRC PhD student to attend a training course on the introduction to the statistical software environment “R”, reading and handling data, graphic analysis and data output analysis, writing simple R-based functions, developing flow control structures, and use of ANOVA and split level designs. The training was conducted as an interactive face-to-face workshop at the Centre of Applied Statistics, the University of Western Australia, Perth (27 November 2012 until 30 November 2012).

The research travel grant improved the student's skills and knowledge for experimental design, analysis of research data and also advanced his technical skills in biostatistics. The student is now using R-based statistical packages to analyse the research data source, because it’s a free and extremely powerful language and software environment for statistical computing, data analysis and graphics. It has become the tool of choice for many statisticians. Understanding of R is extremely valuable for the student’s professional development, data analysis skills, and potentially improves the outcomes of the PhD project.

Final Report • 2013-02-28 • 215.93 KB
2012-751-DLD-RTG.pdf

Summary

The research travel grant allowed a CRC PhD student to attend a training course on the introduction to the statistical software environment “R”, reading and handling data, graphic analysis and data output analysis, writing simple R-based functions, developing flow control structures, and use of ANOVA and split level designs. The training was conducted as an interactive face-to-face workshop at the Centre of Applied Statistics, the University of Western Australia, Perth (27 November 2012 until 30 November 2012).

The research travel grant improved the student's skills and knowledge for experimental design, analysis of research data and also advanced his technical skills in biostatistics. The student is now using R-based statistical packages to analyse the research data source, because it’s a free and extremely powerful language and software environment for statistical computing, data analysis and graphics. It has become the tool of choice for many statisticians. Understanding of R is extremely valuable for the student’s professional development, data analysis skills, and potentially improves the outcomes of the PhD project.

Final Report • 2013-02-28 • 215.93 KB
2012-751-DLD-RTG.pdf

Summary

The research travel grant allowed a CRC PhD student to attend a training course on the introduction to the statistical software environment “R”, reading and handling data, graphic analysis and data output analysis, writing simple R-based functions, developing flow control structures, and use of ANOVA and split level designs. The training was conducted as an interactive face-to-face workshop at the Centre of Applied Statistics, the University of Western Australia, Perth (27 November 2012 until 30 November 2012).

The research travel grant improved the student's skills and knowledge for experimental design, analysis of research data and also advanced his technical skills in biostatistics. The student is now using R-based statistical packages to analyse the research data source, because it’s a free and extremely powerful language and software environment for statistical computing, data analysis and graphics. It has become the tool of choice for many statisticians. Understanding of R is extremely valuable for the student’s professional development, data analysis skills, and potentially improves the outcomes of the PhD project.

Final Report • 2013-02-28 • 215.93 KB
2012-751-DLD-RTG.pdf

Summary

The research travel grant allowed a CRC PhD student to attend a training course on the introduction to the statistical software environment “R”, reading and handling data, graphic analysis and data output analysis, writing simple R-based functions, developing flow control structures, and use of ANOVA and split level designs. The training was conducted as an interactive face-to-face workshop at the Centre of Applied Statistics, the University of Western Australia, Perth (27 November 2012 until 30 November 2012).

The research travel grant improved the student's skills and knowledge for experimental design, analysis of research data and also advanced his technical skills in biostatistics. The student is now using R-based statistical packages to analyse the research data source, because it’s a free and extremely powerful language and software environment for statistical computing, data analysis and graphics. It has become the tool of choice for many statisticians. Understanding of R is extremely valuable for the student’s professional development, data analysis skills, and potentially improves the outcomes of the PhD project.

Final Report • 2013-02-28 • 215.93 KB
2012-751-DLD-RTG.pdf

Summary

The research travel grant allowed a CRC PhD student to attend a training course on the introduction to the statistical software environment “R”, reading and handling data, graphic analysis and data output analysis, writing simple R-based functions, developing flow control structures, and use of ANOVA and split level designs. The training was conducted as an interactive face-to-face workshop at the Centre of Applied Statistics, the University of Western Australia, Perth (27 November 2012 until 30 November 2012).

The research travel grant improved the student's skills and knowledge for experimental design, analysis of research data and also advanced his technical skills in biostatistics. The student is now using R-based statistical packages to analyse the research data source, because it’s a free and extremely powerful language and software environment for statistical computing, data analysis and graphics. It has become the tool of choice for many statisticians. Understanding of R is extremely valuable for the student’s professional development, data analysis skills, and potentially improves the outcomes of the PhD project.

Final Report • 2013-02-28 • 215.93 KB
2012-751-DLD-RTG.pdf

Summary

The research travel grant allowed a CRC PhD student to attend a training course on the introduction to the statistical software environment “R”, reading and handling data, graphic analysis and data output analysis, writing simple R-based functions, developing flow control structures, and use of ANOVA and split level designs. The training was conducted as an interactive face-to-face workshop at the Centre of Applied Statistics, the University of Western Australia, Perth (27 November 2012 until 30 November 2012).

The research travel grant improved the student's skills and knowledge for experimental design, analysis of research data and also advanced his technical skills in biostatistics. The student is now using R-based statistical packages to analyse the research data source, because it’s a free and extremely powerful language and software environment for statistical computing, data analysis and graphics. It has become the tool of choice for many statisticians. Understanding of R is extremely valuable for the student’s professional development, data analysis skills, and potentially improves the outcomes of the PhD project.

Final Report • 2013-02-28 • 215.93 KB
2012-751-DLD-RTG.pdf

Summary

The research travel grant allowed a CRC PhD student to attend a training course on the introduction to the statistical software environment “R”, reading and handling data, graphic analysis and data output analysis, writing simple R-based functions, developing flow control structures, and use of ANOVA and split level designs. The training was conducted as an interactive face-to-face workshop at the Centre of Applied Statistics, the University of Western Australia, Perth (27 November 2012 until 30 November 2012).

The research travel grant improved the student's skills and knowledge for experimental design, analysis of research data and also advanced his technical skills in biostatistics. The student is now using R-based statistical packages to analyse the research data source, because it’s a free and extremely powerful language and software environment for statistical computing, data analysis and graphics. It has become the tool of choice for many statisticians. Understanding of R is extremely valuable for the student’s professional development, data analysis skills, and potentially improves the outcomes of the PhD project.

Final Report • 2013-02-28 • 215.93 KB
2012-751-DLD-RTG.pdf

Summary

The research travel grant allowed a CRC PhD student to attend a training course on the introduction to the statistical software environment “R”, reading and handling data, graphic analysis and data output analysis, writing simple R-based functions, developing flow control structures, and use of ANOVA and split level designs. The training was conducted as an interactive face-to-face workshop at the Centre of Applied Statistics, the University of Western Australia, Perth (27 November 2012 until 30 November 2012).

The research travel grant improved the student's skills and knowledge for experimental design, analysis of research data and also advanced his technical skills in biostatistics. The student is now using R-based statistical packages to analyse the research data source, because it’s a free and extremely powerful language and software environment for statistical computing, data analysis and graphics. It has become the tool of choice for many statisticians. Understanding of R is extremely valuable for the student’s professional development, data analysis skills, and potentially improves the outcomes of the PhD project.

Final Report • 2013-02-28 • 215.93 KB
2012-751-DLD-RTG.pdf

Summary

The research travel grant allowed a CRC PhD student to attend a training course on the introduction to the statistical software environment “R”, reading and handling data, graphic analysis and data output analysis, writing simple R-based functions, developing flow control structures, and use of ANOVA and split level designs. The training was conducted as an interactive face-to-face workshop at the Centre of Applied Statistics, the University of Western Australia, Perth (27 November 2012 until 30 November 2012).

The research travel grant improved the student's skills and knowledge for experimental design, analysis of research data and also advanced his technical skills in biostatistics. The student is now using R-based statistical packages to analyse the research data source, because it’s a free and extremely powerful language and software environment for statistical computing, data analysis and graphics. It has become the tool of choice for many statisticians. Understanding of R is extremely valuable for the student’s professional development, data analysis skills, and potentially improves the outcomes of the PhD project.

Final Report • 2013-02-28 • 215.93 KB
2012-751-DLD-RTG.pdf

Summary

The research travel grant allowed a CRC PhD student to attend a training course on the introduction to the statistical software environment “R”, reading and handling data, graphic analysis and data output analysis, writing simple R-based functions, developing flow control structures, and use of ANOVA and split level designs. The training was conducted as an interactive face-to-face workshop at the Centre of Applied Statistics, the University of Western Australia, Perth (27 November 2012 until 30 November 2012).

The research travel grant improved the student's skills and knowledge for experimental design, analysis of research data and also advanced his technical skills in biostatistics. The student is now using R-based statistical packages to analyse the research data source, because it’s a free and extremely powerful language and software environment for statistical computing, data analysis and graphics. It has become the tool of choice for many statisticians. Understanding of R is extremely valuable for the student’s professional development, data analysis skills, and potentially improves the outcomes of the PhD project.

Final Report • 2013-02-28 • 215.93 KB
2012-751-DLD-RTG.pdf

Summary

The research travel grant allowed a CRC PhD student to attend a training course on the introduction to the statistical software environment “R”, reading and handling data, graphic analysis and data output analysis, writing simple R-based functions, developing flow control structures, and use of ANOVA and split level designs. The training was conducted as an interactive face-to-face workshop at the Centre of Applied Statistics, the University of Western Australia, Perth (27 November 2012 until 30 November 2012).

The research travel grant improved the student's skills and knowledge for experimental design, analysis of research data and also advanced his technical skills in biostatistics. The student is now using R-based statistical packages to analyse the research data source, because it’s a free and extremely powerful language and software environment for statistical computing, data analysis and graphics. It has become the tool of choice for many statisticians. Understanding of R is extremely valuable for the student’s professional development, data analysis skills, and potentially improves the outcomes of the PhD project.

Final Report • 2013-02-28 • 215.93 KB
2012-751-DLD-RTG.pdf

Summary

The research travel grant allowed a CRC PhD student to attend a training course on the introduction to the statistical software environment “R”, reading and handling data, graphic analysis and data output analysis, writing simple R-based functions, developing flow control structures, and use of ANOVA and split level designs. The training was conducted as an interactive face-to-face workshop at the Centre of Applied Statistics, the University of Western Australia, Perth (27 November 2012 until 30 November 2012).

The research travel grant improved the student's skills and knowledge for experimental design, analysis of research data and also advanced his technical skills in biostatistics. The student is now using R-based statistical packages to analyse the research data source, because it’s a free and extremely powerful language and software environment for statistical computing, data analysis and graphics. It has become the tool of choice for many statisticians. Understanding of R is extremely valuable for the student’s professional development, data analysis skills, and potentially improves the outcomes of the PhD project.

Final Report • 2013-02-28 • 215.93 KB
2012-751-DLD-RTG.pdf

Summary

The research travel grant allowed a CRC PhD student to attend a training course on the introduction to the statistical software environment “R”, reading and handling data, graphic analysis and data output analysis, writing simple R-based functions, developing flow control structures, and use of ANOVA and split level designs. The training was conducted as an interactive face-to-face workshop at the Centre of Applied Statistics, the University of Western Australia, Perth (27 November 2012 until 30 November 2012).

The research travel grant improved the student's skills and knowledge for experimental design, analysis of research data and also advanced his technical skills in biostatistics. The student is now using R-based statistical packages to analyse the research data source, because it’s a free and extremely powerful language and software environment for statistical computing, data analysis and graphics. It has become the tool of choice for many statisticians. Understanding of R is extremely valuable for the student’s professional development, data analysis skills, and potentially improves the outcomes of the PhD project.

Final Report • 2013-02-28 • 215.93 KB
2012-751-DLD-RTG.pdf

Summary

The research travel grant allowed a CRC PhD student to attend a training course on the introduction to the statistical software environment “R”, reading and handling data, graphic analysis and data output analysis, writing simple R-based functions, developing flow control structures, and use of ANOVA and split level designs. The training was conducted as an interactive face-to-face workshop at the Centre of Applied Statistics, the University of Western Australia, Perth (27 November 2012 until 30 November 2012).

The research travel grant improved the student's skills and knowledge for experimental design, analysis of research data and also advanced his technical skills in biostatistics. The student is now using R-based statistical packages to analyse the research data source, because it’s a free and extremely powerful language and software environment for statistical computing, data analysis and graphics. It has become the tool of choice for many statisticians. Understanding of R is extremely valuable for the student’s professional development, data analysis skills, and potentially improves the outcomes of the PhD project.

Final Report • 2013-02-28 • 215.93 KB
2012-751-DLD-RTG.pdf

Summary

The research travel grant allowed a CRC PhD student to attend a training course on the introduction to the statistical software environment “R”, reading and handling data, graphic analysis and data output analysis, writing simple R-based functions, developing flow control structures, and use of ANOVA and split level designs. The training was conducted as an interactive face-to-face workshop at the Centre of Applied Statistics, the University of Western Australia, Perth (27 November 2012 until 30 November 2012).

The research travel grant improved the student's skills and knowledge for experimental design, analysis of research data and also advanced his technical skills in biostatistics. The student is now using R-based statistical packages to analyse the research data source, because it’s a free and extremely powerful language and software environment for statistical computing, data analysis and graphics. It has become the tool of choice for many statisticians. Understanding of R is extremely valuable for the student’s professional development, data analysis skills, and potentially improves the outcomes of the PhD project.

Final Report • 2013-02-28 • 215.93 KB
2012-751-DLD-RTG.pdf

Summary

The research travel grant allowed a CRC PhD student to attend a training course on the introduction to the statistical software environment “R”, reading and handling data, graphic analysis and data output analysis, writing simple R-based functions, developing flow control structures, and use of ANOVA and split level designs. The training was conducted as an interactive face-to-face workshop at the Centre of Applied Statistics, the University of Western Australia, Perth (27 November 2012 until 30 November 2012).

The research travel grant improved the student's skills and knowledge for experimental design, analysis of research data and also advanced his technical skills in biostatistics. The student is now using R-based statistical packages to analyse the research data source, because it’s a free and extremely powerful language and software environment for statistical computing, data analysis and graphics. It has become the tool of choice for many statisticians. Understanding of R is extremely valuable for the student’s professional development, data analysis skills, and potentially improves the outcomes of the PhD project.

Final Report • 2013-02-28 • 215.93 KB
2012-751-DLD-RTG.pdf

Summary

The research travel grant allowed a CRC PhD student to attend a training course on the introduction to the statistical software environment “R”, reading and handling data, graphic analysis and data output analysis, writing simple R-based functions, developing flow control structures, and use of ANOVA and split level designs. The training was conducted as an interactive face-to-face workshop at the Centre of Applied Statistics, the University of Western Australia, Perth (27 November 2012 until 30 November 2012).

The research travel grant improved the student's skills and knowledge for experimental design, analysis of research data and also advanced his technical skills in biostatistics. The student is now using R-based statistical packages to analyse the research data source, because it’s a free and extremely powerful language and software environment for statistical computing, data analysis and graphics. It has become the tool of choice for many statisticians. Understanding of R is extremely valuable for the student’s professional development, data analysis skills, and potentially improves the outcomes of the PhD project.

Final Report • 2013-02-28 • 215.93 KB
2012-751-DLD-RTG.pdf

Summary

The research travel grant allowed a CRC PhD student to attend a training course on the introduction to the statistical software environment “R”, reading and handling data, graphic analysis and data output analysis, writing simple R-based functions, developing flow control structures, and use of ANOVA and split level designs. The training was conducted as an interactive face-to-face workshop at the Centre of Applied Statistics, the University of Western Australia, Perth (27 November 2012 until 30 November 2012).

The research travel grant improved the student's skills and knowledge for experimental design, analysis of research data and also advanced his technical skills in biostatistics. The student is now using R-based statistical packages to analyse the research data source, because it’s a free and extremely powerful language and software environment for statistical computing, data analysis and graphics. It has become the tool of choice for many statisticians. Understanding of R is extremely valuable for the student’s professional development, data analysis skills, and potentially improves the outcomes of the PhD project.

SCRC: Seafood CRC Combined Visiting Expert and Research Travel Grant Application: Visit by Dr. Standish K. Allen Jr. from the Virginia Institute of Marine Science to Australia and fluorescent in situ hybridisation training by CRC PhD student Penny Miller prior to Dr Allen’s visit

Project number: 2012-727
Project Status:
Completed
Budget expenditure: $0.00
Principal Investigator: Penny Miller
Organisation: University of Tasmania (UTAS)
Project start/end date: 27 Mar 2012 - 27 Feb 2013
Contact:
FRDC

Final report

ISBN: 978-1-925982-14-5
Author: Penny Miller
Final Report • 2013-02-28 • 293.94 KB
2012-727-DLD-RTG.pdf

Summary

Fluorescent in situ hybridisation (FISH) is a genetic technique that involves fluorescently labelling chromosomes so that each can be identified individually under a high powered microscope. FISH could be an important tool for detecting the aneuploid frequency in tetraploid oyster populations. This is important because a decrease in tetraploid genetic stability could potentially reduce the efficiency of breeding programs and may have carry over impacts on the triploid commercial product.

The PhD student travelled to Canberra to work with Tariq Ezaz of the University of Canberra on troubleshooting her FISH protocol to work on Pacific Oysters. Eventually, the protocol worked, but not consistently or at a strong enough level for chromosomes to be individually identified. It was determined that, due to their small size and weak signals, fluorescently labelled microsatellites are not a reliable method for karyotyping oysters, particularly polyploids where chromosomes tend to overlap. A different probe (PNA) was also trialled. Again this was inconsistent, but the signals were stronger than the microsatellites. This probe is worth mapping and further investigation, however, time, money and sampling constraints prevented any additional study.

Final Report • 2013-02-28 • 293.94 KB
2012-727-DLD-RTG.pdf

Summary

Fluorescent in situ hybridisation (FISH) is a genetic technique that involves fluorescently labelling chromosomes so that each can be identified individually under a high powered microscope. FISH could be an important tool for detecting the aneuploid frequency in tetraploid oyster populations. This is important because a decrease in tetraploid genetic stability could potentially reduce the efficiency of breeding programs and may have carry over impacts on the triploid commercial product.

The PhD student travelled to Canberra to work with Tariq Ezaz of the University of Canberra on troubleshooting her FISH protocol to work on Pacific Oysters. Eventually, the protocol worked, but not consistently or at a strong enough level for chromosomes to be individually identified. It was determined that, due to their small size and weak signals, fluorescently labelled microsatellites are not a reliable method for karyotyping oysters, particularly polyploids where chromosomes tend to overlap. A different probe (PNA) was also trialled. Again this was inconsistent, but the signals were stronger than the microsatellites. This probe is worth mapping and further investigation, however, time, money and sampling constraints prevented any additional study.

Final Report • 2013-02-28 • 293.94 KB
2012-727-DLD-RTG.pdf

Summary

Fluorescent in situ hybridisation (FISH) is a genetic technique that involves fluorescently labelling chromosomes so that each can be identified individually under a high powered microscope. FISH could be an important tool for detecting the aneuploid frequency in tetraploid oyster populations. This is important because a decrease in tetraploid genetic stability could potentially reduce the efficiency of breeding programs and may have carry over impacts on the triploid commercial product.

The PhD student travelled to Canberra to work with Tariq Ezaz of the University of Canberra on troubleshooting her FISH protocol to work on Pacific Oysters. Eventually, the protocol worked, but not consistently or at a strong enough level for chromosomes to be individually identified. It was determined that, due to their small size and weak signals, fluorescently labelled microsatellites are not a reliable method for karyotyping oysters, particularly polyploids where chromosomes tend to overlap. A different probe (PNA) was also trialled. Again this was inconsistent, but the signals were stronger than the microsatellites. This probe is worth mapping and further investigation, however, time, money and sampling constraints prevented any additional study.

Final Report • 2013-02-28 • 293.94 KB
2012-727-DLD-RTG.pdf

Summary

Fluorescent in situ hybridisation (FISH) is a genetic technique that involves fluorescently labelling chromosomes so that each can be identified individually under a high powered microscope. FISH could be an important tool for detecting the aneuploid frequency in tetraploid oyster populations. This is important because a decrease in tetraploid genetic stability could potentially reduce the efficiency of breeding programs and may have carry over impacts on the triploid commercial product.

The PhD student travelled to Canberra to work with Tariq Ezaz of the University of Canberra on troubleshooting her FISH protocol to work on Pacific Oysters. Eventually, the protocol worked, but not consistently or at a strong enough level for chromosomes to be individually identified. It was determined that, due to their small size and weak signals, fluorescently labelled microsatellites are not a reliable method for karyotyping oysters, particularly polyploids where chromosomes tend to overlap. A different probe (PNA) was also trialled. Again this was inconsistent, but the signals were stronger than the microsatellites. This probe is worth mapping and further investigation, however, time, money and sampling constraints prevented any additional study.

Final Report • 2013-02-28 • 293.94 KB
2012-727-DLD-RTG.pdf

Summary

Fluorescent in situ hybridisation (FISH) is a genetic technique that involves fluorescently labelling chromosomes so that each can be identified individually under a high powered microscope. FISH could be an important tool for detecting the aneuploid frequency in tetraploid oyster populations. This is important because a decrease in tetraploid genetic stability could potentially reduce the efficiency of breeding programs and may have carry over impacts on the triploid commercial product.

The PhD student travelled to Canberra to work with Tariq Ezaz of the University of Canberra on troubleshooting her FISH protocol to work on Pacific Oysters. Eventually, the protocol worked, but not consistently or at a strong enough level for chromosomes to be individually identified. It was determined that, due to their small size and weak signals, fluorescently labelled microsatellites are not a reliable method for karyotyping oysters, particularly polyploids where chromosomes tend to overlap. A different probe (PNA) was also trialled. Again this was inconsistent, but the signals were stronger than the microsatellites. This probe is worth mapping and further investigation, however, time, money and sampling constraints prevented any additional study.

Final Report • 2013-02-28 • 293.94 KB
2012-727-DLD-RTG.pdf

Summary

Fluorescent in situ hybridisation (FISH) is a genetic technique that involves fluorescently labelling chromosomes so that each can be identified individually under a high powered microscope. FISH could be an important tool for detecting the aneuploid frequency in tetraploid oyster populations. This is important because a decrease in tetraploid genetic stability could potentially reduce the efficiency of breeding programs and may have carry over impacts on the triploid commercial product.

The PhD student travelled to Canberra to work with Tariq Ezaz of the University of Canberra on troubleshooting her FISH protocol to work on Pacific Oysters. Eventually, the protocol worked, but not consistently or at a strong enough level for chromosomes to be individually identified. It was determined that, due to their small size and weak signals, fluorescently labelled microsatellites are not a reliable method for karyotyping oysters, particularly polyploids where chromosomes tend to overlap. A different probe (PNA) was also trialled. Again this was inconsistent, but the signals were stronger than the microsatellites. This probe is worth mapping and further investigation, however, time, money and sampling constraints prevented any additional study.

Final Report • 2013-02-28 • 293.94 KB
2012-727-DLD-RTG.pdf

Summary

Fluorescent in situ hybridisation (FISH) is a genetic technique that involves fluorescently labelling chromosomes so that each can be identified individually under a high powered microscope. FISH could be an important tool for detecting the aneuploid frequency in tetraploid oyster populations. This is important because a decrease in tetraploid genetic stability could potentially reduce the efficiency of breeding programs and may have carry over impacts on the triploid commercial product.

The PhD student travelled to Canberra to work with Tariq Ezaz of the University of Canberra on troubleshooting her FISH protocol to work on Pacific Oysters. Eventually, the protocol worked, but not consistently or at a strong enough level for chromosomes to be individually identified. It was determined that, due to their small size and weak signals, fluorescently labelled microsatellites are not a reliable method for karyotyping oysters, particularly polyploids where chromosomes tend to overlap. A different probe (PNA) was also trialled. Again this was inconsistent, but the signals were stronger than the microsatellites. This probe is worth mapping and further investigation, however, time, money and sampling constraints prevented any additional study.

Final Report • 2013-02-28 • 293.94 KB
2012-727-DLD-RTG.pdf

Summary

Fluorescent in situ hybridisation (FISH) is a genetic technique that involves fluorescently labelling chromosomes so that each can be identified individually under a high powered microscope. FISH could be an important tool for detecting the aneuploid frequency in tetraploid oyster populations. This is important because a decrease in tetraploid genetic stability could potentially reduce the efficiency of breeding programs and may have carry over impacts on the triploid commercial product.

The PhD student travelled to Canberra to work with Tariq Ezaz of the University of Canberra on troubleshooting her FISH protocol to work on Pacific Oysters. Eventually, the protocol worked, but not consistently or at a strong enough level for chromosomes to be individually identified. It was determined that, due to their small size and weak signals, fluorescently labelled microsatellites are not a reliable method for karyotyping oysters, particularly polyploids where chromosomes tend to overlap. A different probe (PNA) was also trialled. Again this was inconsistent, but the signals were stronger than the microsatellites. This probe is worth mapping and further investigation, however, time, money and sampling constraints prevented any additional study.

Final Report • 2013-02-28 • 293.94 KB
2012-727-DLD-RTG.pdf

Summary

Fluorescent in situ hybridisation (FISH) is a genetic technique that involves fluorescently labelling chromosomes so that each can be identified individually under a high powered microscope. FISH could be an important tool for detecting the aneuploid frequency in tetraploid oyster populations. This is important because a decrease in tetraploid genetic stability could potentially reduce the efficiency of breeding programs and may have carry over impacts on the triploid commercial product.

The PhD student travelled to Canberra to work with Tariq Ezaz of the University of Canberra on troubleshooting her FISH protocol to work on Pacific Oysters. Eventually, the protocol worked, but not consistently or at a strong enough level for chromosomes to be individually identified. It was determined that, due to their small size and weak signals, fluorescently labelled microsatellites are not a reliable method for karyotyping oysters, particularly polyploids where chromosomes tend to overlap. A different probe (PNA) was also trialled. Again this was inconsistent, but the signals were stronger than the microsatellites. This probe is worth mapping and further investigation, however, time, money and sampling constraints prevented any additional study.

Final Report • 2013-02-28 • 293.94 KB
2012-727-DLD-RTG.pdf

Summary

Fluorescent in situ hybridisation (FISH) is a genetic technique that involves fluorescently labelling chromosomes so that each can be identified individually under a high powered microscope. FISH could be an important tool for detecting the aneuploid frequency in tetraploid oyster populations. This is important because a decrease in tetraploid genetic stability could potentially reduce the efficiency of breeding programs and may have carry over impacts on the triploid commercial product.

The PhD student travelled to Canberra to work with Tariq Ezaz of the University of Canberra on troubleshooting her FISH protocol to work on Pacific Oysters. Eventually, the protocol worked, but not consistently or at a strong enough level for chromosomes to be individually identified. It was determined that, due to their small size and weak signals, fluorescently labelled microsatellites are not a reliable method for karyotyping oysters, particularly polyploids where chromosomes tend to overlap. A different probe (PNA) was also trialled. Again this was inconsistent, but the signals were stronger than the microsatellites. This probe is worth mapping and further investigation, however, time, money and sampling constraints prevented any additional study.

Final Report • 2013-02-28 • 293.94 KB
2012-727-DLD-RTG.pdf

Summary

Fluorescent in situ hybridisation (FISH) is a genetic technique that involves fluorescently labelling chromosomes so that each can be identified individually under a high powered microscope. FISH could be an important tool for detecting the aneuploid frequency in tetraploid oyster populations. This is important because a decrease in tetraploid genetic stability could potentially reduce the efficiency of breeding programs and may have carry over impacts on the triploid commercial product.

The PhD student travelled to Canberra to work with Tariq Ezaz of the University of Canberra on troubleshooting her FISH protocol to work on Pacific Oysters. Eventually, the protocol worked, but not consistently or at a strong enough level for chromosomes to be individually identified. It was determined that, due to their small size and weak signals, fluorescently labelled microsatellites are not a reliable method for karyotyping oysters, particularly polyploids where chromosomes tend to overlap. A different probe (PNA) was also trialled. Again this was inconsistent, but the signals were stronger than the microsatellites. This probe is worth mapping and further investigation, however, time, money and sampling constraints prevented any additional study.

Final Report • 2013-02-28 • 293.94 KB
2012-727-DLD-RTG.pdf

Summary

Fluorescent in situ hybridisation (FISH) is a genetic technique that involves fluorescently labelling chromosomes so that each can be identified individually under a high powered microscope. FISH could be an important tool for detecting the aneuploid frequency in tetraploid oyster populations. This is important because a decrease in tetraploid genetic stability could potentially reduce the efficiency of breeding programs and may have carry over impacts on the triploid commercial product.

The PhD student travelled to Canberra to work with Tariq Ezaz of the University of Canberra on troubleshooting her FISH protocol to work on Pacific Oysters. Eventually, the protocol worked, but not consistently or at a strong enough level for chromosomes to be individually identified. It was determined that, due to their small size and weak signals, fluorescently labelled microsatellites are not a reliable method for karyotyping oysters, particularly polyploids where chromosomes tend to overlap. A different probe (PNA) was also trialled. Again this was inconsistent, but the signals were stronger than the microsatellites. This probe is worth mapping and further investigation, however, time, money and sampling constraints prevented any additional study.

Final Report • 2013-02-28 • 293.94 KB
2012-727-DLD-RTG.pdf

Summary

Fluorescent in situ hybridisation (FISH) is a genetic technique that involves fluorescently labelling chromosomes so that each can be identified individually under a high powered microscope. FISH could be an important tool for detecting the aneuploid frequency in tetraploid oyster populations. This is important because a decrease in tetraploid genetic stability could potentially reduce the efficiency of breeding programs and may have carry over impacts on the triploid commercial product.

The PhD student travelled to Canberra to work with Tariq Ezaz of the University of Canberra on troubleshooting her FISH protocol to work on Pacific Oysters. Eventually, the protocol worked, but not consistently or at a strong enough level for chromosomes to be individually identified. It was determined that, due to their small size and weak signals, fluorescently labelled microsatellites are not a reliable method for karyotyping oysters, particularly polyploids where chromosomes tend to overlap. A different probe (PNA) was also trialled. Again this was inconsistent, but the signals were stronger than the microsatellites. This probe is worth mapping and further investigation, however, time, money and sampling constraints prevented any additional study.

Final Report • 2013-02-28 • 293.94 KB
2012-727-DLD-RTG.pdf

Summary

Fluorescent in situ hybridisation (FISH) is a genetic technique that involves fluorescently labelling chromosomes so that each can be identified individually under a high powered microscope. FISH could be an important tool for detecting the aneuploid frequency in tetraploid oyster populations. This is important because a decrease in tetraploid genetic stability could potentially reduce the efficiency of breeding programs and may have carry over impacts on the triploid commercial product.

The PhD student travelled to Canberra to work with Tariq Ezaz of the University of Canberra on troubleshooting her FISH protocol to work on Pacific Oysters. Eventually, the protocol worked, but not consistently or at a strong enough level for chromosomes to be individually identified. It was determined that, due to their small size and weak signals, fluorescently labelled microsatellites are not a reliable method for karyotyping oysters, particularly polyploids where chromosomes tend to overlap. A different probe (PNA) was also trialled. Again this was inconsistent, but the signals were stronger than the microsatellites. This probe is worth mapping and further investigation, however, time, money and sampling constraints prevented any additional study.

Final Report • 2013-02-28 • 293.94 KB
2012-727-DLD-RTG.pdf

Summary

Fluorescent in situ hybridisation (FISH) is a genetic technique that involves fluorescently labelling chromosomes so that each can be identified individually under a high powered microscope. FISH could be an important tool for detecting the aneuploid frequency in tetraploid oyster populations. This is important because a decrease in tetraploid genetic stability could potentially reduce the efficiency of breeding programs and may have carry over impacts on the triploid commercial product.

The PhD student travelled to Canberra to work with Tariq Ezaz of the University of Canberra on troubleshooting her FISH protocol to work on Pacific Oysters. Eventually, the protocol worked, but not consistently or at a strong enough level for chromosomes to be individually identified. It was determined that, due to their small size and weak signals, fluorescently labelled microsatellites are not a reliable method for karyotyping oysters, particularly polyploids where chromosomes tend to overlap. A different probe (PNA) was also trialled. Again this was inconsistent, but the signals were stronger than the microsatellites. This probe is worth mapping and further investigation, however, time, money and sampling constraints prevented any additional study.

Final Report • 2013-02-28 • 293.94 KB
2012-727-DLD-RTG.pdf

Summary

Fluorescent in situ hybridisation (FISH) is a genetic technique that involves fluorescently labelling chromosomes so that each can be identified individually under a high powered microscope. FISH could be an important tool for detecting the aneuploid frequency in tetraploid oyster populations. This is important because a decrease in tetraploid genetic stability could potentially reduce the efficiency of breeding programs and may have carry over impacts on the triploid commercial product.

The PhD student travelled to Canberra to work with Tariq Ezaz of the University of Canberra on troubleshooting her FISH protocol to work on Pacific Oysters. Eventually, the protocol worked, but not consistently or at a strong enough level for chromosomes to be individually identified. It was determined that, due to their small size and weak signals, fluorescently labelled microsatellites are not a reliable method for karyotyping oysters, particularly polyploids where chromosomes tend to overlap. A different probe (PNA) was also trialled. Again this was inconsistent, but the signals were stronger than the microsatellites. This probe is worth mapping and further investigation, however, time, money and sampling constraints prevented any additional study.

Final Report • 2013-02-28 • 293.94 KB
2012-727-DLD-RTG.pdf

Summary

Fluorescent in situ hybridisation (FISH) is a genetic technique that involves fluorescently labelling chromosomes so that each can be identified individually under a high powered microscope. FISH could be an important tool for detecting the aneuploid frequency in tetraploid oyster populations. This is important because a decrease in tetraploid genetic stability could potentially reduce the efficiency of breeding programs and may have carry over impacts on the triploid commercial product.

The PhD student travelled to Canberra to work with Tariq Ezaz of the University of Canberra on troubleshooting her FISH protocol to work on Pacific Oysters. Eventually, the protocol worked, but not consistently or at a strong enough level for chromosomes to be individually identified. It was determined that, due to their small size and weak signals, fluorescently labelled microsatellites are not a reliable method for karyotyping oysters, particularly polyploids where chromosomes tend to overlap. A different probe (PNA) was also trialled. Again this was inconsistent, but the signals were stronger than the microsatellites. This probe is worth mapping and further investigation, however, time, money and sampling constraints prevented any additional study.

Final Report • 2013-02-28 • 293.94 KB
2012-727-DLD-RTG.pdf

Summary

Fluorescent in situ hybridisation (FISH) is a genetic technique that involves fluorescently labelling chromosomes so that each can be identified individually under a high powered microscope. FISH could be an important tool for detecting the aneuploid frequency in tetraploid oyster populations. This is important because a decrease in tetraploid genetic stability could potentially reduce the efficiency of breeding programs and may have carry over impacts on the triploid commercial product.

The PhD student travelled to Canberra to work with Tariq Ezaz of the University of Canberra on troubleshooting her FISH protocol to work on Pacific Oysters. Eventually, the protocol worked, but not consistently or at a strong enough level for chromosomes to be individually identified. It was determined that, due to their small size and weak signals, fluorescently labelled microsatellites are not a reliable method for karyotyping oysters, particularly polyploids where chromosomes tend to overlap. A different probe (PNA) was also trialled. Again this was inconsistent, but the signals were stronger than the microsatellites. This probe is worth mapping and further investigation, however, time, money and sampling constraints prevented any additional study.

SCRC: Seafood CRC Research Travel Grant: Targeted meetings with key research providers and industry personnel in the UK relevant to CRC projects 2011/703 and 2011/735

Project number: 2012-718
Project Status:
Completed
Budget expenditure: $0.00
Principal Investigator: Catriona Macleod
Organisation: University of Tasmania (UTAS)
Project start/end date: 27 Mar 2012 - 30 Jul 2012
Contact:
FRDC

Final report

ISBN: 978-1-925982-38-1
Author: Catriona Macleod
Final Report • 2012-07-31 • 218.61 KB
2012-718-DLD-RTG.pdf

Summary

This trip involved targeted meetings with key research and industry personnel to consolidate the existing relationship and secure ongoing research support for two Seafood CRC student projects as well as to advance the research agendas developed as part of those projects and establish ongoing international research partnerships.

These projects included “An evaluation of the options for expansion of salmonid aquaculture in Tasmanian waters”, and “Tracking methyl mercury contamination pathways in key commercially and recreationally fished species”. The travel grant supported meetings with researchers and industry in the UK, including representatives from the University of Plymouth, Marine Institute at the University of Plymouth, Marine Harvest International and the University of St Andrews.

Final Report • 2012-07-31 • 218.61 KB
2012-718-DLD-RTG.pdf

Summary

This trip involved targeted meetings with key research and industry personnel to consolidate the existing relationship and secure ongoing research support for two Seafood CRC student projects as well as to advance the research agendas developed as part of those projects and establish ongoing international research partnerships.

These projects included “An evaluation of the options for expansion of salmonid aquaculture in Tasmanian waters”, and “Tracking methyl mercury contamination pathways in key commercially and recreationally fished species”. The travel grant supported meetings with researchers and industry in the UK, including representatives from the University of Plymouth, Marine Institute at the University of Plymouth, Marine Harvest International and the University of St Andrews.

Final Report • 2012-07-31 • 218.61 KB
2012-718-DLD-RTG.pdf

Summary

This trip involved targeted meetings with key research and industry personnel to consolidate the existing relationship and secure ongoing research support for two Seafood CRC student projects as well as to advance the research agendas developed as part of those projects and establish ongoing international research partnerships.

These projects included “An evaluation of the options for expansion of salmonid aquaculture in Tasmanian waters”, and “Tracking methyl mercury contamination pathways in key commercially and recreationally fished species”. The travel grant supported meetings with researchers and industry in the UK, including representatives from the University of Plymouth, Marine Institute at the University of Plymouth, Marine Harvest International and the University of St Andrews.

Final Report • 2012-07-31 • 218.61 KB
2012-718-DLD-RTG.pdf

Summary

This trip involved targeted meetings with key research and industry personnel to consolidate the existing relationship and secure ongoing research support for two Seafood CRC student projects as well as to advance the research agendas developed as part of those projects and establish ongoing international research partnerships.

These projects included “An evaluation of the options for expansion of salmonid aquaculture in Tasmanian waters”, and “Tracking methyl mercury contamination pathways in key commercially and recreationally fished species”. The travel grant supported meetings with researchers and industry in the UK, including representatives from the University of Plymouth, Marine Institute at the University of Plymouth, Marine Harvest International and the University of St Andrews.

Final Report • 2012-07-31 • 218.61 KB
2012-718-DLD-RTG.pdf

Summary

This trip involved targeted meetings with key research and industry personnel to consolidate the existing relationship and secure ongoing research support for two Seafood CRC student projects as well as to advance the research agendas developed as part of those projects and establish ongoing international research partnerships.

These projects included “An evaluation of the options for expansion of salmonid aquaculture in Tasmanian waters”, and “Tracking methyl mercury contamination pathways in key commercially and recreationally fished species”. The travel grant supported meetings with researchers and industry in the UK, including representatives from the University of Plymouth, Marine Institute at the University of Plymouth, Marine Harvest International and the University of St Andrews.

Final Report • 2012-07-31 • 218.61 KB
2012-718-DLD-RTG.pdf

Summary

This trip involved targeted meetings with key research and industry personnel to consolidate the existing relationship and secure ongoing research support for two Seafood CRC student projects as well as to advance the research agendas developed as part of those projects and establish ongoing international research partnerships.

These projects included “An evaluation of the options for expansion of salmonid aquaculture in Tasmanian waters”, and “Tracking methyl mercury contamination pathways in key commercially and recreationally fished species”. The travel grant supported meetings with researchers and industry in the UK, including representatives from the University of Plymouth, Marine Institute at the University of Plymouth, Marine Harvest International and the University of St Andrews.

Final Report • 2012-07-31 • 218.61 KB
2012-718-DLD-RTG.pdf

Summary

This trip involved targeted meetings with key research and industry personnel to consolidate the existing relationship and secure ongoing research support for two Seafood CRC student projects as well as to advance the research agendas developed as part of those projects and establish ongoing international research partnerships.

These projects included “An evaluation of the options for expansion of salmonid aquaculture in Tasmanian waters”, and “Tracking methyl mercury contamination pathways in key commercially and recreationally fished species”. The travel grant supported meetings with researchers and industry in the UK, including representatives from the University of Plymouth, Marine Institute at the University of Plymouth, Marine Harvest International and the University of St Andrews.

Final Report • 2012-07-31 • 218.61 KB
2012-718-DLD-RTG.pdf

Summary

This trip involved targeted meetings with key research and industry personnel to consolidate the existing relationship and secure ongoing research support for two Seafood CRC student projects as well as to advance the research agendas developed as part of those projects and establish ongoing international research partnerships.

These projects included “An evaluation of the options for expansion of salmonid aquaculture in Tasmanian waters”, and “Tracking methyl mercury contamination pathways in key commercially and recreationally fished species”. The travel grant supported meetings with researchers and industry in the UK, including representatives from the University of Plymouth, Marine Institute at the University of Plymouth, Marine Harvest International and the University of St Andrews.

Final Report • 2012-07-31 • 218.61 KB
2012-718-DLD-RTG.pdf

Summary

This trip involved targeted meetings with key research and industry personnel to consolidate the existing relationship and secure ongoing research support for two Seafood CRC student projects as well as to advance the research agendas developed as part of those projects and establish ongoing international research partnerships.

These projects included “An evaluation of the options for expansion of salmonid aquaculture in Tasmanian waters”, and “Tracking methyl mercury contamination pathways in key commercially and recreationally fished species”. The travel grant supported meetings with researchers and industry in the UK, including representatives from the University of Plymouth, Marine Institute at the University of Plymouth, Marine Harvest International and the University of St Andrews.

Final Report • 2012-07-31 • 218.61 KB
2012-718-DLD-RTG.pdf

Summary

This trip involved targeted meetings with key research and industry personnel to consolidate the existing relationship and secure ongoing research support for two Seafood CRC student projects as well as to advance the research agendas developed as part of those projects and establish ongoing international research partnerships.

These projects included “An evaluation of the options for expansion of salmonid aquaculture in Tasmanian waters”, and “Tracking methyl mercury contamination pathways in key commercially and recreationally fished species”. The travel grant supported meetings with researchers and industry in the UK, including representatives from the University of Plymouth, Marine Institute at the University of Plymouth, Marine Harvest International and the University of St Andrews.

Final Report • 2012-07-31 • 218.61 KB
2012-718-DLD-RTG.pdf

Summary

This trip involved targeted meetings with key research and industry personnel to consolidate the existing relationship and secure ongoing research support for two Seafood CRC student projects as well as to advance the research agendas developed as part of those projects and establish ongoing international research partnerships.

These projects included “An evaluation of the options for expansion of salmonid aquaculture in Tasmanian waters”, and “Tracking methyl mercury contamination pathways in key commercially and recreationally fished species”. The travel grant supported meetings with researchers and industry in the UK, including representatives from the University of Plymouth, Marine Institute at the University of Plymouth, Marine Harvest International and the University of St Andrews.

Final Report • 2012-07-31 • 218.61 KB
2012-718-DLD-RTG.pdf

Summary

This trip involved targeted meetings with key research and industry personnel to consolidate the existing relationship and secure ongoing research support for two Seafood CRC student projects as well as to advance the research agendas developed as part of those projects and establish ongoing international research partnerships.

These projects included “An evaluation of the options for expansion of salmonid aquaculture in Tasmanian waters”, and “Tracking methyl mercury contamination pathways in key commercially and recreationally fished species”. The travel grant supported meetings with researchers and industry in the UK, including representatives from the University of Plymouth, Marine Institute at the University of Plymouth, Marine Harvest International and the University of St Andrews.

Final Report • 2012-07-31 • 218.61 KB
2012-718-DLD-RTG.pdf

Summary

This trip involved targeted meetings with key research and industry personnel to consolidate the existing relationship and secure ongoing research support for two Seafood CRC student projects as well as to advance the research agendas developed as part of those projects and establish ongoing international research partnerships.

These projects included “An evaluation of the options for expansion of salmonid aquaculture in Tasmanian waters”, and “Tracking methyl mercury contamination pathways in key commercially and recreationally fished species”. The travel grant supported meetings with researchers and industry in the UK, including representatives from the University of Plymouth, Marine Institute at the University of Plymouth, Marine Harvest International and the University of St Andrews.

Final Report • 2012-07-31 • 218.61 KB
2012-718-DLD-RTG.pdf

Summary

This trip involved targeted meetings with key research and industry personnel to consolidate the existing relationship and secure ongoing research support for two Seafood CRC student projects as well as to advance the research agendas developed as part of those projects and establish ongoing international research partnerships.

These projects included “An evaluation of the options for expansion of salmonid aquaculture in Tasmanian waters”, and “Tracking methyl mercury contamination pathways in key commercially and recreationally fished species”. The travel grant supported meetings with researchers and industry in the UK, including representatives from the University of Plymouth, Marine Institute at the University of Plymouth, Marine Harvest International and the University of St Andrews.

Final Report • 2012-07-31 • 218.61 KB
2012-718-DLD-RTG.pdf

Summary

This trip involved targeted meetings with key research and industry personnel to consolidate the existing relationship and secure ongoing research support for two Seafood CRC student projects as well as to advance the research agendas developed as part of those projects and establish ongoing international research partnerships.

These projects included “An evaluation of the options for expansion of salmonid aquaculture in Tasmanian waters”, and “Tracking methyl mercury contamination pathways in key commercially and recreationally fished species”. The travel grant supported meetings with researchers and industry in the UK, including representatives from the University of Plymouth, Marine Institute at the University of Plymouth, Marine Harvest International and the University of St Andrews.

Final Report • 2012-07-31 • 218.61 KB
2012-718-DLD-RTG.pdf

Summary

This trip involved targeted meetings with key research and industry personnel to consolidate the existing relationship and secure ongoing research support for two Seafood CRC student projects as well as to advance the research agendas developed as part of those projects and establish ongoing international research partnerships.

These projects included “An evaluation of the options for expansion of salmonid aquaculture in Tasmanian waters”, and “Tracking methyl mercury contamination pathways in key commercially and recreationally fished species”. The travel grant supported meetings with researchers and industry in the UK, including representatives from the University of Plymouth, Marine Institute at the University of Plymouth, Marine Harvest International and the University of St Andrews.

Final Report • 2012-07-31 • 218.61 KB
2012-718-DLD-RTG.pdf

Summary

This trip involved targeted meetings with key research and industry personnel to consolidate the existing relationship and secure ongoing research support for two Seafood CRC student projects as well as to advance the research agendas developed as part of those projects and establish ongoing international research partnerships.

These projects included “An evaluation of the options for expansion of salmonid aquaculture in Tasmanian waters”, and “Tracking methyl mercury contamination pathways in key commercially and recreationally fished species”. The travel grant supported meetings with researchers and industry in the UK, including representatives from the University of Plymouth, Marine Institute at the University of Plymouth, Marine Harvest International and the University of St Andrews.

Final Report • 2012-07-31 • 218.61 KB
2012-718-DLD-RTG.pdf

Summary

This trip involved targeted meetings with key research and industry personnel to consolidate the existing relationship and secure ongoing research support for two Seafood CRC student projects as well as to advance the research agendas developed as part of those projects and establish ongoing international research partnerships.

These projects included “An evaluation of the options for expansion of salmonid aquaculture in Tasmanian waters”, and “Tracking methyl mercury contamination pathways in key commercially and recreationally fished species”. The travel grant supported meetings with researchers and industry in the UK, including representatives from the University of Plymouth, Marine Institute at the University of Plymouth, Marine Harvest International and the University of St Andrews.

View Filter

Organisation