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Université de Strasbourg in France invites applications for a postdoctoral position in computational chemistry focused on developing and characterizing new M3+ “pseudo-bare” metal species. The project combines MD, DFT, and experimental studies to understand stability, structure, and reactivity, with emphasis on catalysis and solvent effects.
The candidate will develop force fields, perform MD simulations, and collaborate with experimental partners to publish findings at international conferences
Organisation/Company Université de Strasbourg Department Direction des ressources humaines Research Field Chemistry » Molecular chemistry Researcher Profile Recognised Researcher (R2) Positions Postdoc Positions Application Deadline 11 Oct 2026 - 23:59 (Europe/Paris) Country France Type of Contract Temporary Job Status Full-time Offer Starting Date 1 Nov 2026 Is the job funded through the EU Research Framework Programme? Not funded by a EU programme Is the Job related to staff position within a Research Infrastructure? No
Research project or operation
The project aims to develop and characterize new “pseudo-bare” metal species M³⁺ (Sc³⁺ and Y³⁺), stabilized solely by weakly coordinating carborate anions. These highly electrophilic cations could constitute exceptionally strong Lewis acids and enable the activation of otherwise poorly reactive substrates. An integrated approach combining classical molecular dynamics (cMD), DFT calculations, and experimental studies will be developed to understand their stability, structure, and behavior in solution. Molecular modeling will be used in particular to identify the most suitable fluorinated solvents and to characterize cation–anion interactions and coordination dynamics. The M[HexCB₁₁Cl₁₁]₃ species will subsequently be prepared experimentally using different synthetic strategies and characterized. Their Lewis acidity and degree of electrophilicity will be evaluated, notably through fluoride ion affinity calculations. Their reactivity toward small molecules such as CO, CO₂, H₂, alkenes, alkynes, and imines will be investigated. Particular attention will be paid to their catalytic potential in hydrosilylation and hydrogenation reactions. Reaction mechanisms will be elucidated through a combination of cMD, DFT, and quantum–classical molecular dynamics (QCMD). The project is thus expected to establish the molecular foundations required to stabilize and exploit “bare” metal trications as a new class of Lewis superacids.
Activities
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The position will be hosted at the University of Strasbourg within the Laboratory of Complex Matter Chemistry (UMR 7140 CNRS / University of Strasbourg), in the Molecular Modeling and Simulation group led by Dr. Alain Chaumont