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for high-aspect-ratio vertical interconnects characterise the results (SEM, AFM, XCT, optical microscopy) for geometric accuracy, durability and interfacial strength -validate scalability and
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. Particular emphasis will be placed on understanding the relationships between catalyst structure, interfacial processes, local reaction environments, and electrochemical performance. The project aims
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interconnects characterise the results (SEM, AFM, XCT, optical microscopy) for geometric accuracy, durability and interfacial strength -validate scalability and sustainability: less material waste, better energy
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simulations of interfacial ion transport and understand the evolution of the electronic structure under realistic operating conditions Contribute to the design of stable material interfaces for efficient charge
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developed during this work will deepen our understanding of nonlinear wave phenomena in fluid mechanics and contribute to the broader theory of interfacial flows. Entry Requirements The minimum entry
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The doctoral research will take place at the Laboratory Geosciences Environment Toulouse (GET) within the Interfacial Reactivity and Biogeochemistry team, in collaboration with the Laboratory for Systems
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collaboration with the Laboratory Geosciences and Environment Toulouse (GET) within the Interfacial Reactivity and Biogeochemistry team, both located on the Belin-Roche campus at University of Toulouse
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interfacial phenomena. The project is part of the ERC Starting Grant EMBIOMO, which focuses on the dynamics of embolism propagation within leaf vascular networks and on the development of biomimetic models
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-ion battery. However, the performance of the battery is limited by several technological challenges. This project will focus on the interfacial processes occurring within lithium-sulfur cells with a
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-relevant geometries and conditions. You will receive extensive training in (i) theoretical knowledge of interfacial instabilities, capillary phenomena, scaling theories, hydrodynamic flow in disordered media