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High spin Fe<sup>3+</sup>-related bonding strength and electron transfer for sensitive and stable SERS detection

Xinlu Zheng, Xiao Wu, Letian Zhang, Jianjian Kang, Man Zhou, Yang Zhong, Jinlong Zhang, Lingzhi Wang

2022Chemical Science15 citationsDOIOpen Access PDF

Abstract

favors molecular adsorption and the charge transfer from the molecule to MIL-101(FeNiTi) is promoted, benefitting from the enhanced electron delocalization, which both contribute to the distinguished SERS performance of MIL-101(FeNiTi). This finding provides in-depth mechanistic understanding of the effect of the spin state of transition metals on mediating SERS activity, which is expected to efficiently promote the development of SERS platforms based on non-noble metals.

Topics & Concepts

MoleculeElectron transferSpin (aerodynamics)Charge (physics)ElectronChemical physicsMaterials scienceSpin statesChemistryAtomic physicsNanotechnologyPhotochemistryInorganic chemistryPhysicsOrganic chemistryNuclear physicsThermodynamicsQuantum mechanicsGold and Silver Nanoparticles Synthesis and ApplicationsMolecular Junctions and NanostructuresElectrochemical Analysis and Applications
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