Manipulation of carbon partitioning to enhance the value of sugarcane. Manipulation of carbon partitioning to enhance the value of sugarcane. This project aims to develop enhanced varieties of sugarcane, a highly efficient crop for capturing carbon in plant biomass. This project will use genomic and metabolomic tools to investigate the biochemical and molecular genetic control of carbon partitioning into the major components of sugarcane biomass; identify key genetic controls of sucrose, cellulo ....Manipulation of carbon partitioning to enhance the value of sugarcane. Manipulation of carbon partitioning to enhance the value of sugarcane. This project aims to develop enhanced varieties of sugarcane, a highly efficient crop for capturing carbon in plant biomass. This project will use genomic and metabolomic tools to investigate the biochemical and molecular genetic control of carbon partitioning into the major components of sugarcane biomass; identify key genetic controls of sucrose, cellulose, hemicellulose and lignin biosynthesis; and establish strategies for genetic selection of sugarcane genotypes with desirable biomass components. Anticipated outcomes are an optimised industrial sugarcane crops with higher sugar content and other biomass components designed for high value end uses such as bio-energy or bio-material production.Read moreRead less
Targeting and stabilizing proteins in sugar storage vacuoles for metabolic engineering in sugarcane. We have isolated a novel gene for an enzyme that efficiently converts sucrose into a product of much higher value. We have shown that the enzyme functions in sugarcane, a first example of the potential for new biosynthetic capacities in this highly productive crop. Because 90% of stored sucrose is in specialized vacuoles, the enzyme needs to be directed into these vacuoles, and made stable and ac ....Targeting and stabilizing proteins in sugar storage vacuoles for metabolic engineering in sugarcane. We have isolated a novel gene for an enzyme that efficiently converts sucrose into a product of much higher value. We have shown that the enzyme functions in sugarcane, a first example of the potential for new biosynthetic capacities in this highly productive crop. Because 90% of stored sucrose is in specialized vacuoles, the enzyme needs to be directed into these vacuoles, and made stable and active there. This is feasible by building on recent discoveries about vacuolar targeting in plants. The outputs include scientific understanding to underpin metabolic engineering in plants, and a profitable high-technology export industry for Australia.Read moreRead less
Optimising transgene expression and stability for enhanced sugar yield and high-value sugar production in sugarcane. 'SugarBooster' technology has the potential to underpin a value-added sugarcane industry. Higher sucrose yield is a key to sustainable export profitability, and it makes the development of renewable biofuels from sugarcane more feasible. Isomaltulose has established health benefits for consumers and it is also attractive as a renewable starting material for industry. But it must c ....Optimising transgene expression and stability for enhanced sugar yield and high-value sugar production in sugarcane. 'SugarBooster' technology has the potential to underpin a value-added sugarcane industry. Higher sucrose yield is a key to sustainable export profitability, and it makes the development of renewable biofuels from sugarcane more feasible. Isomaltulose has established health benefits for consumers and it is also attractive as a renewable starting material for industry. But it must currently be produced by expensive fermentation. Efficient production in plants will open an increasing world market. This collaborative project is vital to bring these breakthrough technologies to reliable commercial implementation, in time to capture the economic benefits of the protected IP for Australia.Read moreRead less