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the activity and stability of iridium oxide-based catalysts supported on various materials within a PEM electrolysis cell. Catalyst layers and membrane-electrode assemblies will be prepared and characterized in
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, phosphorescent Transition Metal Complexes (TMCs) possess appealing properties encompassing outstanding photo- and electro-chemical features, highly tunable emission color and relatively long-lived excited states
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that focuses on the manipulation of collective spin excitations in magnetic materials. The use of magnons for classical or quantum information transport is being considered as a long-term prospect. In
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project carried out within the framework of the ANR DOMINO program. More specifically, the position involves the characterization and catalytic evaluation of materials (metal–organic frameworks (MOFs) and
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. Conduct structural, morphological, and chemical characterization of metal–zeolite composite materials. Collaborate closely with the project partners within the LIZA consortium. Contribute to the development
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on the realization, characterization and measurement of the structural and transport properties of superconducting devices made entirely out of silicon. Superconducting Si thin layers will be realized by Gas Immersion
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characterization of materials. • Development and operation of experimental test benches under high-vacuum conditions. • Definition of test protocols, including detailed test procedures and acceptance criteria
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platform, dedicated to the development of superconducting accelerating cavities. The service also develops characterization benches to measure material properties at low temperatures and manage a cryogenic
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Materials) group at IEMN will develop innovative bioelectronic platforms enabling the electrical interfacing and functional monitoring of neurocompetent intestinal tissues through advanced micro- and
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materials under extreme conditions of intense magnetic fields (exceeding 90 T) and very low temperatures (down to 100 mK). Scientific targets will be to investigate the properties of quantum materials (UTe2