High efficiency magnetics for high frequency and high energy density power converters used in renewable energy systems. This project will result in the development of more efficient power conversion technologies for solar energy production and enable greater utilisation of renewable, solar-generated power in the national electricity supply. Technology developed from this proposal will provide the solar power industry with several new high frequency magnetics technologies utilised in solar power ....High efficiency magnetics for high frequency and high energy density power converters used in renewable energy systems. This project will result in the development of more efficient power conversion technologies for solar energy production and enable greater utilisation of renewable, solar-generated power in the national electricity supply. Technology developed from this proposal will provide the solar power industry with several new high frequency magnetics technologies utilised in solar power converters. These solar technology innovations will result in national benefits through reduced carbon emissions from a greater uptake of renewable (solar) power. It will enable Australia to rise to meet the renewable energy generation and utilisation standards of the United States of America and Europe.Read moreRead less
Linkage Infrastructure, Equipment And Facilities - Grant ID: LE110100126
Funder
Australian Research Council
Funding Amount
$150,000.00
Summary
An integrated kinetic measurement system enabling efficient solar energy conversion. This measurement facility will underpin advances in the fundamental understanding of new semiconducting materials for high efficiency light-driven energy conversion systems. The outcomes of the research at the facility will lead to significant economic and environmental benefits for many industries, such as low cost solar cells and water purifications.
Discovery Early Career Researcher Award - Grant ID: DE180101118
Funder
Australian Research Council
Funding Amount
$314,446.00
Summary
Enabling high photovoltaic penetration in power distribution networks. This project aims to develop a novel hybrid control method for power distribution grid network voltage regulation with high photovoltaic penetration. The outcome of this project will enable power utilities to cost-effectively regulate network voltage and ultimately remove barriers for future photovoltaic deployment. This will deliver significant economic benefits for both the wider community and utility providers, along with ....Enabling high photovoltaic penetration in power distribution networks. This project aims to develop a novel hybrid control method for power distribution grid network voltage regulation with high photovoltaic penetration. The outcome of this project will enable power utilities to cost-effectively regulate network voltage and ultimately remove barriers for future photovoltaic deployment. This will deliver significant economic benefits for both the wider community and utility providers, along with substantial environmental outcomes through increased use of sustainable energy sources.Read moreRead less
Mechanisms and innovative technologies for machining nanoscale multilayered thin film solar panels. This project addresses an important manufacturing bottleneck in the solar energy industry by addressing significant limitations in machining multilayered solar panels. A successful outcome will provide an important breakthrough in machining technology applicable not only to solar panels but other material science applications.
Power quality monitoring of grids with high penetration of power converters. The project aims to monitor and analyse power quality of grids within the frequency ranges of 0-2 kHz (existing regulations) and 2-150 kHz (new regulations). Power quality of grids deteriorate due to the high penetrations of inverter-based renewable energy systems. To estimate power quality of grids, the project expects to develop a multi-domain simulation model based on power grid configurations and operating condition ....Power quality monitoring of grids with high penetration of power converters. The project aims to monitor and analyse power quality of grids within the frequency ranges of 0-2 kHz (existing regulations) and 2-150 kHz (new regulations). Power quality of grids deteriorate due to the high penetrations of inverter-based renewable energy systems. To estimate power quality of grids, the project expects to develop a multi-domain simulation model based on power grid configurations and operating condition. Developed methodologies will assist network service providers to better analyse harmonics and resonances within low and high voltage power systems. Expected outcomes of this project are to assist partners to monitor and solve the existing communication issues of audio frequency load control and to address power quality issues arising from the increasing connection of renewable energy systems.Read moreRead less
Degradation conscious grid-scale battery energy management scheme. The project aims to develop an improved battery management system to smooth the intermittent contribution of renewable energy sources to the grid. As the level of penetration of renewable energy sources into electrical grids increases, energy storage will play an increasingly important role in solving some of the technical challenges caused by the intermittent nature of the renewable sources. The existing design methods for gri ....Degradation conscious grid-scale battery energy management scheme. The project aims to develop an improved battery management system to smooth the intermittent contribution of renewable energy sources to the grid. As the level of penetration of renewable energy sources into electrical grids increases, energy storage will play an increasingly important role in solving some of the technical challenges caused by the intermittent nature of the renewable sources. The existing design methods for grid-scale battery management systems do not take into consideration the degradation of the battery banks. Thus, this project aims to fill this gap by developing an electrochemical-based, degradation-conscious, battery management system. The proposed system aims to increase the life span and capacity use of the batteries.Read moreRead less
Metal Halide Perovskite Metal-organic Framework Crystal-Glass Composites. This project aims to investigate the highly stable and efficient semiconductive composite materials, recently discovered by my group, consisting of metal halide perovskite embedded in metal-organic framework glass. An integrated experimental and computational approach will be used to study the structures and interfacial bonding mechanisms that govern the highly sought-after properties for the composites. Expected outcomes ....Metal Halide Perovskite Metal-organic Framework Crystal-Glass Composites. This project aims to investigate the highly stable and efficient semiconductive composite materials, recently discovered by my group, consisting of metal halide perovskite embedded in metal-organic framework glass. An integrated experimental and computational approach will be used to study the structures and interfacial bonding mechanisms that govern the highly sought-after properties for the composites. Expected outcomes are a new generation of environmentally safe perovskite devices for energy, environmental and health applications, e.g. lighting, displays, X-ray sensing, photocatalysis and photovoltaics. This project will position Australia at the forefront of semiconducting device research and create commercial opportunities. Read moreRead less
New topologies optimised for co-located grid connected photovoltaic (PV) and battery storage systems. When a grid connected photovoltaic (PV) system and battery storage are co-located, many advantages can be gained by sharing and optimising the grid connection power electronics (DC-DC converters and DC-AC inverters). The specific aims of this project are to identify existing, and then develop and compare new, system topologies and configurations, for grid connecting co-located PV and (battery) s ....New topologies optimised for co-located grid connected photovoltaic (PV) and battery storage systems. When a grid connected photovoltaic (PV) system and battery storage are co-located, many advantages can be gained by sharing and optimising the grid connection power electronics (DC-DC converters and DC-AC inverters). The specific aims of this project are to identify existing, and then develop and compare new, system topologies and configurations, for grid connecting co-located PV and (battery) storage in the low voltage AC distribution network. Different optimal solutions including new solutions are expected for single and three phase systems, for varying power levels from one kilowatt to one megawatt, and for varying load shapes (for example, residential vs commercial).Read moreRead less
Advanced Microgrids for Residential, Commercial and Industry Buildings. The project aims to develop and commercialise an Advanced Microgrid Energy-Management System (AM-EMS) to enhance the energy efficiency of residential, commercial and industry buildings. It will allow the industry partner to integrate their existing products in AM-EMS with maximum returns. The intended outcome of the project is an AM-EMS with optimised energy scheduling and distribution, incorporating renewable energy sources ....Advanced Microgrids for Residential, Commercial and Industry Buildings. The project aims to develop and commercialise an Advanced Microgrid Energy-Management System (AM-EMS) to enhance the energy efficiency of residential, commercial and industry buildings. It will allow the industry partner to integrate their existing products in AM-EMS with maximum returns. The intended outcome of the project is an AM-EMS with optimised energy scheduling and distribution, incorporating renewable energy sources and battery storage systems. End-users will benefit from reduced energy costs, improved energy efficiency and reliability, with the added benefit of new and innovative clean energy technology. The research community will benefit from new knowledge that will underpin international improvements in energy efficiency.Read moreRead less
Industrially Viable Routes for fabrication of Perovskite Solar Cells. Photovoltaic technology based on perovskite solar cell (PSC) is predicated to account for USD34.8 billion by 2027 in the global market. The current synthesis protocol using detrimental solvent for perovskite formation and the unsatisfactory stability of perovskite are two key barriers for commercial production of PSC. This project aims to develop new synthesis methods for stable perovskite materials in solar cells by utilizing ....Industrially Viable Routes for fabrication of Perovskite Solar Cells. Photovoltaic technology based on perovskite solar cell (PSC) is predicated to account for USD34.8 billion by 2027 in the global market. The current synthesis protocol using detrimental solvent for perovskite formation and the unsatisfactory stability of perovskite are two key barriers for commercial production of PSC. This project aims to develop new synthesis methods for stable perovskite materials in solar cells by utilizing green solvents that are viable for large scale production. The anticipated outcomes including industrially compatible material synthesis methods for efficient, stable PSC will significantly advance the manufacture capability and competitiveness of the industrial partner in this important area.Read moreRead less