Advanced Materials for Energy and Industry (Brown(I), Kemmitt, MacKenzie)

The research will design and develop new inorganic nano- and microstructures in ceramic and metal hybrid materials through precise control of chemical and electrochemical fabrication techniques.  This will provide new materials to benefit New Zealand’s ceramic export industry and will provide new approaches to the use of renewable energy resources, notably hydrogen and solar. In […]

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Advanced Natural Fibre and Polymer Hybrid Materials (Johnston, MacKenzie)

The work will involve the incorporation and binding of metal nanoparticles, notably Au, Ag, Pd and related compounds onto and into natural fibres to provide nano-functionalisation and to fabricate nano-structured surfaces. Achieving control of the particle size and shape, self assembly and the chemical bonding of the respective nanomaterials to the fibre substrate will be […]

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Nanostructured Materials for Applications in Catalysis (Golovko, Kemmitt, Brown(I), Johnston, Tilley, Telfer and others)

The chemical reactivity of the nano-structured catalysts will be explored with a focus on revealing structure-property relationships, particularly on how size, chemical composition and morphology of the nanoparticles affect their performance as catalysts. Their catalytic activity and selectivity will be investigated in relation to partial, selective oxidation under benign conditions, photocatalytic degradation of pollutants and […]

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Inorganic Hybrid Materials

The research activities of Theme 5 was to develop new inorganic hybrid materials whose hierarchy and synergistic combination of nano-, micro- and macro-scaled features will give rise to new chemical, physical and biological functionality to facilitate the next generation of advanced materials.  This Theme was incorporated into the new 4 Theme Structure in 2013. Theme […]

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