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Field
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team at the CEMHTI will be responsible for studying the phenomena occurring at the electrode/electrolyte interface in order to develop a laboratory-scale supercapacitor with an optimised architecture
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– specifically iron oxide (a candidate photocatalyst, battery electrode and supercapacitor material) and nickel oxide (an emerging supercapacitor electrode material and hole transport layer for photovoltaics
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different ways, such as conductive concrete, structural batteries, supercapacitor, smart device like energy harvester, sensor, etc.); Conduct testing of all relevant aspects of advanced concrete material
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Chern numbers; nonlinear Hall effects - 2D materials in energy storage contexts (e.g., batteries, supercapacitors) • Conduct state-of-the-art computational work to complement theory, including: - DFT
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, sodium-ion and lithium-metal batteries, redox flow cells, PEM fuel cells, supercapacitors, advanced 3D imaging and tomography, techno-economic analysis, and additive manufacturing. A major focus of our
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supervise all relevant operational phases. Specifically, the technologist will be responsible for developing and integrating hybrid battery-supercapacitor storage systems that optimise power density
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-lithium technologies (i.e. sodium and zinc), supercapacitors and hybrid devices. Main Tasks and responsibilities: Support on the development of zinc ion batteries based on prussian blue materials. The main
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hybrid nanocomposite materials for their use in energy storage devices, such as rechargeable lithium batteries or other non-lithium technologies (i.e. sodium and zinc), supercapacitors and hybrid devices
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, supercapacitors and eco-friendly energy technologies. Fundamental to many geochemical and biochemical processes, proton transport in confined water and at material interfaces remains poorly understood. In
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for autonomous platforms and laboratory systems. Lead research in smart electric power hybridisation (e.g., batteries, supercapacitors, fuel-based systems, renewable integration). Develop control and energy