Defining the Brassica pan-genome and establishing methods for gene conversion based crop improvement. Gene content varies between individual varieties. The project aims to apply novel genomic tools to identify and characterise the fixed and variable gene content in the important crop canola and use this to understand genome evolution as well as develop tools to accelerate canola breeding. The project team have developed and used a high-resolution genotyping approach to demonstrate that gene conv ....Defining the Brassica pan-genome and establishing methods for gene conversion based crop improvement. Gene content varies between individual varieties. The project aims to apply novel genomic tools to identify and characterise the fixed and variable gene content in the important crop canola and use this to understand genome evolution as well as develop tools to accelerate canola breeding. The project team have developed and used a high-resolution genotyping approach to demonstrate that gene conversions, short recombination events which lead to the non-reciprocal exchange of genomic regions during meiosis, are abundant in crop genomes. The project aims to develop methods and resources to characterise gene conversion in canola and establish a basis for gene conversion based crop improvement.Read moreRead less
Special Research Initiatives - Grant ID: SR0354766
Funder
Australian Research Council
Funding Amount
$10,000.00
Summary
Molecular farming: seizing the opportunity to establish a new technology based, value adding industry in and for Australia. Molecular farming involves the production of novel products in plants and brings together the technology to genetically modify plants to produce these products with efficient production of plant biomass. The range of potential products is very broad and includes therapeutic and industrial proteins, bioplastics, fibres, food additives, glues and dyes. The molecular farming i ....Molecular farming: seizing the opportunity to establish a new technology based, value adding industry in and for Australia. Molecular farming involves the production of novel products in plants and brings together the technology to genetically modify plants to produce these products with efficient production of plant biomass. The range of potential products is very broad and includes therapeutic and industrial proteins, bioplastics, fibres, food additives, glues and dyes. The molecular farming industry is already established in North America with products on the market. Australia has an outstanding opportunity to participate in this new industry as a producer if we can aggregate the critical scientific mass and work together with the current fledgling industry and State and Federal regulators.Read moreRead less
Establishing novel breeding methods for canola improvement. It is imperative to ensure reliable food production in the coming years of climate change and increasing population. Genomics offers the greatest potential to increase food production. This project will apply genomic selection methods to accelerate canola oilseed breeding to ensure continued increases in production of this important food and national export.
Towards genome methylation based crop improvement. Deoxyribonucleic acid (DNA) methylation is a form of genetic control that regulates crop performance and the crop's response to the environment. Improving understanding of the inheritance of methylation in relation to crop performance will provide the basis for methylation based breeding for climate resilient crops.
Fertility crisis: harnessing the genomic tension behind pollen fertility in sorghum. Hybrid sorghum varieties yield more grain than inbred varieties but the production seed for farmers can be difficult. This project will identify the genes responsible for a trait that makes hybrid seed production possible and this knowledge will help raise sorghum yields in Australian and in some of the world’s poorest countries.