Smart molecular/MoS2 Heterostructures Featuring Light and Thermally-Induced Strain Driven by Spin Switching
Authors:
- Ramón Torres-CavanillasRTRamón Torres-Cavanillas
- Marc Morant-GinerMMMarc Morant-Giner
- Garin Escorcia-ArizaGEGarin Escorcia-Ariza
- Julien DugayJDJulien Dugay
- J. Canet-FerrerJCJ. Canet-Ferrer
- Sergio TataySTSergio Tatay
- Salvador Cardona-SerraSCSalvador Cardona-Serra
- Mónica Giménez MarquésMMMónica Giménez Marqués
- Marta GalbiatiMGMarta Galbiati
- Alicia Forment-AliagaAFAlicia Forment-Aliaga
- Eugenio CoronadoECEugenio Coronado
Preprint
- 17 July 2020
- preprint
- Published by American Chemical Society (ACS) in ChemRxiv
Abstract
In this work we exploit the ability of spin-crossover molecules to switch between two spin states, upon the application of external stimuli, to prepare smart molecular/2D heterostructures. Through the chemical design of the hybrid interface, that involves a covalent grafting between the two components, we obtain a hybrid heterostructure formed by spin-crossover nanoparticles anchored on chemically functionalized monolayers of semiconducting MoS2. In the resulting hybrid, the strain generated by the molecular system over the MoS2 layer, as a consequence of a thermal or light-induced spin switching, results in a dramatic and reversible change of its electrical and optical properties. This novel class of smart molecular/2D heterostructures could open the way towards a novel generation of hybrid multifunctional materials and devices of direct application in highly topical fields like electronics, spintronics or molecular sensing.Keywords
All Related Versions
- Published version: Nature Chemistry, 13 (11), 1101.