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Socio-Economic Objective : Agricultural chemicals
Socio-Economic Objective : Field crops
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Fertilisers And Agrochemicals (Application Etc.) (2)
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  • Funded Activity

    Linkage Projects - Grant ID: LP0991494

    Funder
    Australian Research Council
    Funding Amount
    $318,000.00
    Summary
    Nanostructured liquid crystal particles as Next Generation agricultural bioactive delivery systems. Improving the efficiency of use of agricultural chemicals, through utilization of novel liquid crystalline carriers particles, will deliver significant environmental and economic benefits. Reduced overall usage and input of chemicals into the environment, together with lower water consumption in the treatment of crops will contribute to an Environmentally Sustainable Australia, with benefits in re .... Nanostructured liquid crystal particles as Next Generation agricultural bioactive delivery systems. Improving the efficiency of use of agricultural chemicals, through utilization of novel liquid crystalline carriers particles, will deliver significant environmental and economic benefits. Reduced overall usage and input of chemicals into the environment, together with lower water consumption in the treatment of crops will contribute to an Environmentally Sustainable Australia, with benefits in reduced salinity. More economical farming will also lead to flow on benefits to other businesses in rural communities. The project will also enhance Australia's reputation in the uptake of nanotechnologies, and in training of young scientists in the nanotechnology field.
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    Funded Activity

    Linkage Projects - Grant ID: LP0989525

    Funder
    Australian Research Council
    Funding Amount
    $235,260.00
    Summary
    Enhanced efficiency fertilisers for agricultural sustainability and environmental quality. Expected benefits will come from reduced environmental impact and improved profitability of farming. These include: demonstrably reduced emissions of nitrogen gases (nitrous oxide (a greenhouse gas), nitric oxide (ozone active), and ammonia (a pollutant and secondary greenhouse gas); less nitrate leaching, soil acidification and nitrogen contamination of water resources; increased flexibility in timing and .... Enhanced efficiency fertilisers for agricultural sustainability and environmental quality. Expected benefits will come from reduced environmental impact and improved profitability of farming. These include: demonstrably reduced emissions of nitrogen gases (nitrous oxide (a greenhouse gas), nitric oxide (ozone active), and ammonia (a pollutant and secondary greenhouse gas); less nitrate leaching, soil acidification and nitrogen contamination of water resources; increased flexibility in timing and method of fertiliser application; reduced requirement for nitrogen fertiliser, and; helping farmers adapt to future climatic and elevated CO2 conditions. These outcomes will significantly improve and help protect the future financial and environmental conditions of rural Australia, and improve our national greenhouse account.
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    Funded Activity

    Linkage Projects - Grant ID: LP0882618

    Funder
    Australian Research Council
    Funding Amount
    $240,387.00
    Summary
    Controlled nutrient release for more efficient agricultural water use and reduced environmental insult. We will create a completely new type of coating for fertilizer granules. Clays that adsorb and slowly release phosphates and/or other nutrients will be exfoliated with cationic organic reagents to produce organoclay nanoparticles of greatly increased surface area. These will be polymerized with current and novel monomers to form nanocomposites, encasing the clay in a water-swellable matrix by .... Controlled nutrient release for more efficient agricultural water use and reduced environmental insult. We will create a completely new type of coating for fertilizer granules. Clays that adsorb and slowly release phosphates and/or other nutrients will be exfoliated with cationic organic reagents to produce organoclay nanoparticles of greatly increased surface area. These will be polymerized with current and novel monomers to form nanocomposites, encasing the clay in a water-swellable matrix by polymerization; this will enable both slow water perfusion and strong binding to the granules. The polymer and nanoclay properties will be tuneable to release targeted nutrients at an optimal rate for uptake by crops, reducing nutrient seepage into the environment.
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    Funded Activity

    Discovery Projects - Grant ID: DP1095295

    Funder
    Australian Research Council
    Funding Amount
    $315,000.00
    Summary
    Dissecting insect gut function to understand insecticide detoxification. Massive quantities of chemical insecticides are used daily to control the insect pests that threaten agriculture, human health and the welfare of domestic pets. Insects readily evolve resistance to these chemicals reducing the effectiveness of pest control, increasing the amount of chemical used and increasing costs to consumers. This project examines the way in which insects adapt to the extreme stress imposed on them by .... Dissecting insect gut function to understand insecticide detoxification. Massive quantities of chemical insecticides are used daily to control the insect pests that threaten agriculture, human health and the welfare of domestic pets. Insects readily evolve resistance to these chemicals reducing the effectiveness of pest control, increasing the amount of chemical used and increasing costs to consumers. This project examines the way in which insects adapt to the extreme stress imposed on them by chemical insecticides. A thorough understanding of this adaptation process is required before insecticide resistance can be effectively managed or prevented.
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    Funded Activity

    Discovery Projects - Grant ID: DP0986107

    Funder
    Australian Research Council
    Funding Amount
    $380,000.00
    Summary
    Functional and regulatory analysis of n-acetylcholine receptors, key targets of insecticides. Agriculture is one of Australia's mainstay industries and a major user of insecticides. However, current insecticides suffer a number of significant deficiencies, including collateral damage in the environment and insect resistance. One of the major targets for insecticides are a class of neuronal receptors, found in organisms ranging from worms to man. Our work will provide a detailed biological unders .... Functional and regulatory analysis of n-acetylcholine receptors, key targets of insecticides. Agriculture is one of Australia's mainstay industries and a major user of insecticides. However, current insecticides suffer a number of significant deficiencies, including collateral damage in the environment and insect resistance. One of the major targets for insecticides are a class of neuronal receptors, found in organisms ranging from worms to man. Our work will provide a detailed biological understanding of these receptors leading to better ways of developing new insecticides. Similar receptors in humans are the target for nicotine and associated with neurological disorders such as schizophrenia and autism. Thus our work will also increase our understanding of important human receptors associated with disease.
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    Funded Activity

    Linkage - International - Grant ID: LX0664436

    Funder
    Australian Research Council
    Funding Amount
    $10,000.00
    Summary
    Improving nitrogen use efficiency in crop plants: Functional analysis of high-affinity ammonium transport in plant lines altered in ammonium transport capacity. Improving nitrogen fertiliser use in crop species will benefit Australia and world agriculture by reducing nitrogen-linked environmental pollution. Nitrogen fertilisers can be leached from soils and result in the pollution of ground water, rivers, estuaries and oceans. Using model plant systems we are dissecting the genes and their encod .... Improving nitrogen use efficiency in crop plants: Functional analysis of high-affinity ammonium transport in plant lines altered in ammonium transport capacity. Improving nitrogen fertiliser use in crop species will benefit Australia and world agriculture by reducing nitrogen-linked environmental pollution. Nitrogen fertilisers can be leached from soils and result in the pollution of ground water, rivers, estuaries and oceans. Using model plant systems we are dissecting the genes and their encoded proteins responsible for ammonium nitrogen uptake into plants. Identifying the in planta function of these genes will allow new breeding approaches to specifically target genes that will improve the efficiency of ammonium uptake and lessen the reliance on the supply of nitrogen fertilizers in modern agricultural crop production.
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    Showing 1-6 of 6 Funded Activites

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