Integrated nonmetal-metal single-atom catalysis for selective synthesis. Single atom catalysts can achieve the maximum efficiency of active sites for a reaction. This project will develop integrated nonmetal and metal single atom-based catalysts for selective oxidation towards clean production and organic waste conversion to value-added polymers for carbon recycle. The project will result in new functional materials and green catalytic processes for chemical synthesis and waste reduction, and ad ....Integrated nonmetal-metal single-atom catalysis for selective synthesis. Single atom catalysts can achieve the maximum efficiency of active sites for a reaction. This project will develop integrated nonmetal and metal single atom-based catalysts for selective oxidation towards clean production and organic waste conversion to value-added polymers for carbon recycle. The project will result in new functional materials and green catalytic processes for chemical synthesis and waste reduction, and advance fundamental understanding of molecular structure of materials for catalyst design and process engineering for industrial applications. The outcomes will promote the development of chemical industry, waste recycle and green environment in Australia, making significant benefits to economics and society.Read moreRead less
CO2-coupled photothermal catalysis on superlattice structures. This project aims to develop a structure-tailored platform of superlattice materials for photothermal catalytic conversion of natural gases to valuable fuels and chemicals. Innovations lie in engineered atomic and bulk scale nanocrystals for high-efficiency sunlight harvesting to drive CO2-coupled catalysis of C-H bond activation. Advanced characterisations and multiscale computations will enable mechanistic insights into the synergy ....CO2-coupled photothermal catalysis on superlattice structures. This project aims to develop a structure-tailored platform of superlattice materials for photothermal catalytic conversion of natural gases to valuable fuels and chemicals. Innovations lie in engineered atomic and bulk scale nanocrystals for high-efficiency sunlight harvesting to drive CO2-coupled catalysis of C-H bond activation. Advanced characterisations and multiscale computations will enable mechanistic insights into the synergy of photo and thermal catalysis in hydrocarbon conversions. The projects will result in next-generation intelligent materials and clean technologies for solar fuels production and CO2 recycling. Outcomes will benefit Australia’s long-term energy security and sustainability toward a carbon-neutral society. Read moreRead less
Early Career Industry Fellowships - Grant ID: IE230100365
Funder
Australian Research Council
Funding Amount
$462,237.00
Summary
Solar-driven catalytic production of high-value product from waste glycerol. Sustainable bio-refining requires an efficient and economical way of utilising the surplus amount of glycerol generated as a by-product in biodiesel industries. This project aims to construct an industry-scale solar-driven catalytic system to generate high-value-added chemicals and green hydrogen fuel from biomass wastes simultaneously. The structure-reactivity relationship of working catalysts will be established to fi ....Solar-driven catalytic production of high-value product from waste glycerol. Sustainable bio-refining requires an efficient and economical way of utilising the surplus amount of glycerol generated as a by-product in biodiesel industries. This project aims to construct an industry-scale solar-driven catalytic system to generate high-value-added chemicals and green hydrogen fuel from biomass wastes simultaneously. The structure-reactivity relationship of working catalysts will be established to fit the up-scale applications. The gained cutting-edge knowledge and technology will significantly contribute to biomass waste utilisation and sustainable fabrication, further bringing significant economic and social benefits by creating a new competitive business for Australian chemical and fuel areas. Read moreRead less
Nano-engineering of hierarchical catalysts for renewable chemicals. Producing high-value chemicals based on renewable alternatives -biomass resources is vital for the climate and a sustainable economy. This project will develop a unique nano-engineering approach to design hierarchical catalysts for the selective conversion of biomass into tailor-made products. Advanced in situ spectroscopic techniques will be employed to establish the structure-reactivity relationship of working catalysts and th ....Nano-engineering of hierarchical catalysts for renewable chemicals. Producing high-value chemicals based on renewable alternatives -biomass resources is vital for the climate and a sustainable economy. This project will develop a unique nano-engineering approach to design hierarchical catalysts for the selective conversion of biomass into tailor-made products. Advanced in situ spectroscopic techniques will be employed to establish the structure-reactivity relationship of working catalysts and thereby manipulate the key factors governing the activity/selectivity. Such cutting-edge knowledge gained is crucial for optimising process efficiency and resource utilisation, which is essential for the success of the biorefining industry and a more environmentally-friendly chemical economy in Australia.Read moreRead less
Three-dimensional solar-energy-driven hydrogen generation from ammonia. This project aims to address the challenges of hydrogen generation, transportation and storage by conceptualising a novel three-dimensional, solar-driven system for ammonia splitting on ultralight catalyst materials. The project expects to generate new knowledge in the area of advanced materials enabled hydrogen technologies through interdisciplinary approaches involving materials science, novel catalysis, and nanotechnology ....Three-dimensional solar-energy-driven hydrogen generation from ammonia. This project aims to address the challenges of hydrogen generation, transportation and storage by conceptualising a novel three-dimensional, solar-driven system for ammonia splitting on ultralight catalyst materials. The project expects to generate new knowledge in the area of advanced materials enabled hydrogen technologies through interdisciplinary approaches involving materials science, novel catalysis, and nanotechnology. Expected outcomes include new catalyst materials, design strategies, and advanced ammonia splitting technologies. This should provide significant benefits, such as newly created knowledge, technological innovation, research training, contributing to hydrogen economy and net zero for a greener environment.Read moreRead less
Discovery Early Career Researcher Award - Grant ID: DE240100480
Funder
Australian Research Council
Funding Amount
$445,237.00
Summary
Electrolyte design for high-performance, sustainable sodium batteries. This project aims to develop sustainable high-performance sodium batteries by investigating new non-flammable and safe electrolyte chemistries. The project will generate knowledge in materials chemistry for battery electrolytes that will underpin improvements in battery technology and help to move society towards a zero-carbon economy. The outcomes will provide materials suitable for prototyping reliable, safe and sustainable ....Electrolyte design for high-performance, sustainable sodium batteries. This project aims to develop sustainable high-performance sodium batteries by investigating new non-flammable and safe electrolyte chemistries. The project will generate knowledge in materials chemistry for battery electrolytes that will underpin improvements in battery technology and help to move society towards a zero-carbon economy. The outcomes will provide materials suitable for prototyping reliable, safe and sustainable batteries in Australia and enhance research collaborations with local and international industry partners. These advances will contribute to reliable, affordable, and sustainable energy storage systems, positioning Australia at the forefront of advanced battery research.Read moreRead less
Zwitterion-based electrolytes for advanced energy technologies. This research aims to develop a new class of electrolyte that is safer, non-flammable and designed to enable excellent performance of high energy batteries made with either sodium or lithium. Through the synthesis of new electrolyte structures that are designed to improve stability and electrochemical properties, and using a range of analysis techniques to understand the material properties, the project aims to solve some of the saf ....Zwitterion-based electrolytes for advanced energy technologies. This research aims to develop a new class of electrolyte that is safer, non-flammable and designed to enable excellent performance of high energy batteries made with either sodium or lithium. Through the synthesis of new electrolyte structures that are designed to improve stability and electrochemical properties, and using a range of analysis techniques to understand the material properties, the project aims to solve some of the safety and performance problems that plague existing electrolytes. Expected benefits include new functional energy materials for safer, more reliable energy storage technologies, plus research training, collaborations and materials development capabilities to help position Australia as a global leader in this field.Read moreRead less