<\/i>OUR OFFERS<\/strong><\/p>\n<\/div> The person recruited will be assigned to the Physics Department of the Faculty of Science and Technology at Nantes University<\/a>. He\/she will work in the Physics of Materials and Nanostructures <\/a>(PMN) team. <\/p>\n Teaching profile : <\/strong><\/p>\n The person recruited will teach general physics in all three years of the bachelor’s degree program (Physics and Engineering Sciences). He\/she will also be involved in specialist teaching in the physics of functional materials in the Matter Sciences Master’s program (M1 and M2 ENR and Cursus Master Doctorat EMat). <\/p>\n Research profile: <\/strong><\/p>\n The profile sought to complete the position is that of a materials physicist, specializing in magnetotransport, and interested in the structure-properties relationship in new materials. To achieve this, the candidate should have extensive experience in transport measurements (e.g. high impedance DC measurements, magnetoresistance, Hall effect, pressure measurements, pulse measurements, etc.). <\/p>\n Profile :<\/strong><\/p>\n IMN’s “Mottronics” group has become a key player in the study of Mott insulators under electric fields, both in terms of fundamentals and innovation, notably through several maturation programs on Mott memories and neurons (including the Mott-IA regional research demonstrator).<\/p>\n Full description<\/strong> : <\/strong>PDF download<\/a><\/p>\n Contact<\/strong>: Olivier RAVEL (Directeur.Physique@univ-nantes.fr), Jean LE BIDEAU (Jean.Lebideau@cnrs-imn.fr), Laurent CARIO (Laurent.Cario@cnrs-imn.fr)<\/p>\n<\/div><\/div><\/div> The person recruited will be assigned to the Materials Department at Polytech Nantes<\/a> and will teach mainly in this department. He or she will carry out research within the Materials Engineering and Metallurgy<\/a> team (ID2M) at IMN. <\/p>\n Teaching profile : <\/strong><\/p>\n The person recruited will mainly teach in the Materials specialization and associated continuing education courses in welding, but may also teach in other specializations or in preparatory courses (PeiP).<\/p>\n Research profile: <\/strong><\/p>\n The successful candidate will carry out research in the field of experimental metallurgy, with a particular focus on welding metallurgy and additive metal manufacturing: study of melting baths, solidification microstructures and their behavior (thermo-mechanical properties, corrosion, etc.) in relation to material characteristics and process parameters.<\/p>\n Profile :<\/strong><\/p>\n All teaching and research activities are carried out in close collaboration with companies (student projects, internships, work-study programs, industrial contributors to training programs, site visits, sponsorship of graduating classes, collaborative research contracts and projects, including Cifre theses and PERFORM projects at IRT Jules Verne, sharing and management of intellectual property, etc.),<\/p>\n Full description<\/strong> : <\/strong>PDF download<\/a><\/p>\n Contact<\/strong>: PAILLARD (Pascal.Paillard@univ-nantes.fr), Franck TANCRET (Franck.Tancret@univ-nantes.fr)<\/p>\n<\/div><\/div><\/div> The person recruited will be assigned to the Chemistry Department of the Faculty of Science and Technology at Nantes University<\/a>. He\/she will carry out his\/her research within the Electrochemical Energy Storage and Transformation<\/a> (ST2E) team. <\/p>\n Teaching profile : <\/strong><\/p>\n The lecturer recruited will be involved in teaching general chemistry, inorganic chemistry and materials chemistry at bachelor’s and master’s level.<\/p>\n Research profile: <\/strong><\/p>\n Within the ST2E team, the person recruited will develop a research activity on the recycling of materials for the electrochemical storage and conversion of energy. Joining the work already initiated on this subject (PEPR Recycling, PEPR Hydrogen, PEPR Batteries, joint laboratory with Armor Battery Films), he or she will combine his or her skills with those of the team’s researchers, and will also benefit from IMN’s advanced characterization resources. <\/p>\n Profile :<\/strong><\/p>\n The validity of the proposed recycling solutions will be facilitated by the use of the PLASSMAT platform for optimizing pocket cells relevant to industrial applications.<\/p>\n Full description<\/strong> : <\/strong>PDF download<\/a><\/p>\n Contact<\/strong>: Bernard HUMBERT (Bernard.Humbert@univ-nantes.fr), Bernard LESTRIEZ (Bernard.Lestriez@cnrs-imn.fr), Olivier JOUBERT (Olivier.Joubert@cnrs-imn.fr)<\/p>\n<\/div><\/div><\/div> The person recruited will be assigned to the Physics of Materials and Nanostructures<\/a> (PMN) team.<\/p>\n Subject<\/strong> Computational Catalysis & DFT Modelling of Nanodiamond Surfaces for Sustainable Fluorination<\/strong><\/p>\n The postdoc will lead Work Package 2 (WP2), which aims to identify and model the most efficient catalytic sites on NDs using advanced Density Functional Theory (DFT) calculations. The project seeks to revolutionize the design of ND-based catalysts by controlling their surface reconstruction and functionalization, enabling greener and more selective fluorination processes for key industrial sectors such as batteries, pharmaceuticals and agrochemicals. Full description and application<\/strong> : <\/strong>link to website<\/a><\/p>\n<\/div><\/div><\/div><\/div><\/div><\/div><\/div><\/div><\/div> The person recruited will be assigned to the Materials and Metallurgy Engineering<\/a> team (ID2M).<\/p>\n Subject<\/strong> Optimization of cementitious materials by mechano-activation of clays: study of microstructural modifications<\/strong><\/p>\n The aim of this thesis is to define the optimum conditions for the mechano-activation of TOT clays (smectites, illites, etc.), in order to optimize their reactivity in compound cements. In the course of the study, and based on the skills of both teams, the PhD student will combine monitoring of the structural transformation of clays during mechano-activation (by calorimetry, DRX and Rietveld analysis, solid state NMR(29Si<\/sup>, 27Al<\/sup>, 1H<\/sup>), thermal analysis and infra-red spectroscopy), monitoring the evolution of physical properties (specific surface area, size distribution and properties at particle interfaces), monitoring their reactivity in cementitious water, and evaluating the rheological and mechanical behavior of cementitious materials incorporating these additives. <\/p>\n Full description<\/strong> : <\/strong>PDF download<\/a><\/p>\n Contact<\/strong>: Dimitri DENEELE(Dimitri.Deneele@cnrs-imn.fr)<\/a><\/p>\n<\/div><\/div><\/div> The person recruited will be assigned to the Electrochemical Energy Storage and Transformation<\/a> (ST2E) team.<\/p>\n Subject<\/strong> Advanced formulation of composite electrodes and integration of polymer electrolytes for the development of all-solid state molecular anion-ion batteries in pocket cells.<\/strong><\/p>\n In the context of the energy transition, the development of new electrochemical storage technologies is a major challenge. Molecular anion batteries represent a promising alternative to conventional systems, due to their potential to be intrinsically free of critical metals. Full description<\/strong> : <\/strong>PDF download<\/a><\/p>\n Contact<\/strong>: Philippe POIZOT(philippe.poizot@cnrs-imn.fr)<\/a> and Bernard LESTRIEZ(bernard.lestriez@cnrs-imn.fr)<\/a><\/p>\n<\/div><\/div><\/div> The new recruit will be assigned to the Innovative Materials for Optics, Photovoltaics and Storage<\/a> (MIOPS) team.<\/p>\n Subject<\/strong> : Modeling the electronic and photovoltaic properties of the material Sb\u2082Se\u2083<\/strong><\/p>\n Antimony selenide (Sb\u2082Se\u2083) is a promising semiconductor for photovoltaic applications thanks to its low toxicity, abundance and excellent optoelectronic properties. However, its performance remains limited by intrinsic defects, band misalignments and interfaces with buffer layers. This thesis proposes to combine theoretical modeling and experimental collaborations to predict and optimize the electronic and photovoltaic properties of Sb\u2082Se\u2083. The aim is to propose substitution (S\/Se), defect engineering and buffer layer selection strategies to obtain an optimal material prior to its synthesis and experimental characterization. This thesis offer is funded under the ANR SOLART program. <\/p>\n Full description and application<\/strong> : <\/strong>link to website<\/a><\/p>\n<\/div><\/div><\/div> The person recruited will be assigned to the Laboratoire de Plan\u00e9tologie et G\u00e9osciences, and will need to interact closely with members of the Institut des Mat\u00e9riaux de Nantes Jean Rouxel.<\/p>\n Subject<\/strong> Experimental approach to the mechanisms of selenium incorporation into aluminoborosilicate glasses: Application to the immobilization of 79Se radioisotopes.<\/strong><\/p>\n Selenium 79 is a by-product of nuclear power plant activity. Although produced in small quantities, it represents a serious environmental problem due to its long half-life (0.28 Ma), its high mobility in the environment and its high volatility at high temperatures, which precludes the use of a standard vitrification protocol for long-term immobilization. <\/p>\n Full description and application<\/strong> : <\/strong>link to website<\/a><\/p>\n<\/div><\/div><\/div> The person recruited will be assigned to the Physics of Materials and Nanostructures<\/a> (PMN) team.<\/p>\n Subject<\/strong> Biophysics and biomechanics of plants exposed to nanoparticles of agricultural interest<\/strong><\/p>\n This thesis aims to characterize the interactions between nano-fertilizers and plants. Understanding these interactions is crucial for the development of sustainable agriculture and assessing the potential impact on human health. Indeed, the use of nano-fertilizers has been identified as an alternative to conventional fertilizers, since they should optimize nutrient supply, limit losses to the environment and preserve crop production and quality. <\/p>\n Full description and application<\/strong> : <\/strong>PDF download<\/a><\/p>\n<\/div><\/div><\/div><\/div><\/div><\/div><\/div><\/div><\/div>Job offers<\/h2><\/div>
<\/i><\/i><\/span>Teacher-researcher (M\/F) - Materials physicist, specialist in electronic transport properties<\/span><\/a><\/h3><\/div>
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<\/i><\/i><\/span>Lecturer-researcher (M\/F) - Metallurgy, welding, metal additive manufacturing<\/span><\/a><\/h3><\/div>
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<\/i><\/i><\/span>Lecturer-researcher (M\/F) - Recycling materials for sustainable research<\/span><\/a><\/h3><\/div>
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<\/i><\/i><\/span>Postdoctoral Researcher in Computational Catalysis & DFT Modeling of Nanodiamond Surfaces for Sustainable Fluoridation (M\/F)<\/span><\/a><\/h3><\/div>
\nThe scientific theme covers surface chemistry and catalysis, with a focus on understanding the impact of halogenation (fluorine, chlorine) and thermal treatments on the electronic and structural properties of NDs. The postdoc will work closely with experimental partners (ICCF, IJL, IC2MP, Syensqo) to validate computational predictions and develop catalysts that are both active and stable under demanding reaction conditions. This position offers a unique opportunity to contribute to a transformative project at the interface between materials science, computational chemistry and sustainable industrial innovation. <\/p>\nThesis offers<\/h2><\/div>
<\/i><\/i><\/span>PhD student (M\/F) in materials science<\/span><\/a><\/h3><\/div>
<\/i><\/i><\/span>PhD student (M\/F) in materials science<\/span><\/a><\/h3><\/div>
\nThe subject of this thesis, which will complement four other theses currently in progress, will focus on the optimization of active materials and composite electrodes, both positive and negative. <\/p>\n<\/i><\/i><\/span>PhD student (M\/F) in materials science<\/span><\/a><\/h3><\/div>
<\/i><\/i><\/span>PhD student (M\/F) in materials science<\/span><\/a><\/h3><\/div>
<\/i><\/i><\/span>PhD student (M\/F) in materials science<\/span><\/a><\/h3><\/div>
Internships<\/h2><\/div>