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Nicolas Mercier

Researcher at University of Angers

Publications -  126
Citations -  5059

Nicolas Mercier is an academic researcher from University of Angers. The author has contributed to research in topics: Tetrathiafulvalene & Perovskite (structure). The author has an hindex of 34, co-authored 117 publications receiving 4421 citations. Previous affiliations of Nicolas Mercier include École Normale Supérieure & University of Paris-Sud.

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Planarized Star-Shaped Oligothiophenes with Enhanced π-Electron Delocalization

TL;DR: Results associated with theoretical calculations show the advantage of benzotrithiophene as a central core in terms of pi-electron delocalization and cyclic voltammetry and UV-visible spectroscopy.
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Effect of mono- versus di-ammonium cation of 2,2'-bithiophene derivatives on the structure of organic-inorganic hybrid materials based on iodo metallates

TL;DR: Three layered compounds designed for their incorporation in organic-inorganic materials based on iodometalates have been synthesized as crystals from slowly cooled aqueous solution containing metal halide and bithiophene derivative salts, revealing a semiconductive behavior and molecular interactions.
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Thermally Induced Bi(III) Lone Pair Stereoactivity: Ferroelectric Phase Transition and Semiconducting Properties of (MV)BiBr5 (MV= methylviologen)

TL;DR: In this paper, the BiBr5 chains of trans-connected octahedra are stabilized by methyviologen cations, and the Bi3+ electron lone pair is sterochemically activated below −30 °C, leading to an acentric polar phase.
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Large spontaneous polarization and clear hysteresis loop of a room-temperature hybrid ferroelectric based on mixed-halide [BiI3Cl2] polar chains and methylviologen dication.

TL;DR: Of great importance is that this room-temperature hybrid ferroelectric displays a clear electrical hysteresis loop with a large spontaneous polarization (>15 μC·cm(-2)).
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Unique hydrogen bonding correlating with a reduced band gap and phase transition in the hybrid perovskites (HO(CH2)2NH3)2PbX4 (X = I, Br).

TL;DR: A change in the hydrogen bonding occurs, with molecules standing up in the interlayer space and OH parts probably interacting together, leading to a more conventional situation for ammonium groups and a more distorted perovskite layer.