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Socio-Economic Objective : Solar-thermal
Field of Research : Mechanical Engineering
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  • Funded Activity

    Discovery Projects - Grant ID: DP0345769

    Funder
    Australian Research Council
    Funding Amount
    $210,000.00
    Summary
    Heat transfer processes in evacuated tubular solar absorbers. The aim of this project is to improve the understanding of the complex heat transfer processes in evacuated tubular solar water heaters. This project will develop thermal and hydrodynamic models for advanced solar water heaters incorporating evacuated tubular absorbers and will assess the accuracy of the models through a series of outdoor experiments on prototype evacuated tubular solar water heaters. The outcomes will lead to the d .... Heat transfer processes in evacuated tubular solar absorbers. The aim of this project is to improve the understanding of the complex heat transfer processes in evacuated tubular solar water heaters. This project will develop thermal and hydrodynamic models for advanced solar water heaters incorporating evacuated tubular absorbers and will assess the accuracy of the models through a series of outdoor experiments on prototype evacuated tubular solar water heaters. The outcomes will lead to the design and manufacturing of more efficient solar collectors, which can greatly benefit both Australian domestic and export markets.
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    Funded Activity

    Linkage - International - Grant ID: LX0560252

    Funder
    Australian Research Council
    Funding Amount
    $15,000.00
    Summary
    Dehumidification and cooling driven by solar/waste heat using liquid desiccants. The provision of comfort cooling is responsible for a considerable and increasing portion of the world energy demand and electricity peak demand. To substitute electrically driven vapour compression machines with their high electrical energy consumption and especially high peak loads, the use of solar energy or waste heat for a cooling and dehumidification system driven by liquid desiccants is a promising opportunit .... Dehumidification and cooling driven by solar/waste heat using liquid desiccants. The provision of comfort cooling is responsible for a considerable and increasing portion of the world energy demand and electricity peak demand. To substitute electrically driven vapour compression machines with their high electrical energy consumption and especially high peak loads, the use of solar energy or waste heat for a cooling and dehumidification system driven by liquid desiccants is a promising opportunity. The project utilises the complementary strengths in the research groups to develop practical and economically feasible cooling/dehumidification systems for different types of buildings with different moisture removal and cooling requirements at different locations (Australia, Southern Europe).
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    Funded Activity

    Linkage Projects - Grant ID: LP0455641

    Funder
    Australian Research Council
    Funding Amount
    $85,560.00
    Summary
    Development of novel roofing panels integrating solar heat collection and phase change storage. The provision of comfort heating for domestic and commercial buildings contributes significantly to Australia's energy use and greenhouse gas emissions. The project aims to develop a new roofing product which will collect and store solar energy for heating. The product integrates conventional roofing products into a solar collector and a heat store. Materials that melt/freeze at suitable temperatures .... Development of novel roofing panels integrating solar heat collection and phase change storage. The provision of comfort heating for domestic and commercial buildings contributes significantly to Australia's energy use and greenhouse gas emissions. The project aims to develop a new roofing product which will collect and store solar energy for heating. The product integrates conventional roofing products into a solar collector and a heat store. Materials that melt/freeze at suitable temperatures will be used for heat storage. The project involves developing a mathematical model and a prototype design. In addition to fulfilling the conventional function of roofing products including thermal and sound insulation, the prototype is intended to be aesthetically acceptable and easily compatible with current building practices.
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    Funded Activity

    Linkage Projects - Grant ID: LP0346996

    Funder
    Australian Research Council
    Funding Amount
    $69,099.00
    Summary
    Assessment of the new technologies to maximise the internal energy efficiency by modelling the energy flows in Victorian power stations. Increased internal energy efficiency will reduce the CO2 emissions and increase the profit margin for the power stations. The aim of the proposed research is to investigate the internal energy efficiency in the brown coal fired power stations by modelling the internal energy flows to reveal the potentials in the 'waste' heat streams in the power stations, and t .... Assessment of the new technologies to maximise the internal energy efficiency by modelling the energy flows in Victorian power stations. Increased internal energy efficiency will reduce the CO2 emissions and increase the profit margin for the power stations. The aim of the proposed research is to investigate the internal energy efficiency in the brown coal fired power stations by modelling the internal energy flows to reveal the potentials in the 'waste' heat streams in the power stations, and to assess new waste heat recovery measures for the power industry. The proposed research, supported by the entire Victorian power generation industry, will help the industry to achieve their green house gas emission reduction target set by the Federal Government.
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    Funded Activity

    Linkage Projects - Grant ID: LP0454195

    Funder
    Australian Research Council
    Funding Amount
    $300,000.00
    Summary
    A 60% efficient solar microconcentrator for electricity and hot water. The aim of this project is to develop a microconcentrator for deployment on house roofs that will produce both solar hot water and solar electricity with a combined efficiency above 60%. The system will have a low profile and will be nearly invisible from the street. The system will track the sun. Concentration will be accomplished by a mixture of refraction and reflection. About 20% of the sunlight will be converted to elect .... A 60% efficient solar microconcentrator for electricity and hot water. The aim of this project is to develop a microconcentrator for deployment on house roofs that will produce both solar hot water and solar electricity with a combined efficiency above 60%. The system will have a low profile and will be nearly invisible from the street. The system will track the sun. Concentration will be accomplished by a mixture of refraction and reflection. About 20% of the sunlight will be converted to electricity using lines of tiny solar cells, with the balance being converted to heat which is removed by cooling fluid and stored in hot water tanks.
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