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Synergetic role of charge transfer and strain engineering in improving the catalysis of Pd single-atom-thick motifs stabilized on a defect-free MoS<sub>2</sub>/Ag(Au)(111) heterostructure

Zhixin Su, Rui Pang, Xiaoyan Ren, Shunfang Li

2020Journal of Materials Chemistry A20 citationsDOI

Abstract

Single-atom-thick-Pd<italic>N</italic> magic nanomotifs are demonstrated to be stabilized on defect-free MoS<sub>2</sub> overlayer supported on Ag(111) <italic>via</italic> the synergetic role of charge transfer among the Pd active sites, leading to superior catalytic performance to SAC-Pd<sub>1</sub>.

Topics & Concepts

HeterojunctionOverlayerAtom (system on chip)Materials scienceCatalysisCharge (physics)CrystallographyChemistryNanotechnologyPhysical chemistryPhysicsOptoelectronicsEngineeringEmbedded systemBiochemistryQuantum mechanics2D Materials and ApplicationsMXene and MAX Phase MaterialsAdvanced Memory and Neural Computing
Synergetic role of charge transfer and strain engineering in improving the catalysis of Pd single-atom-thick motifs stabilized on a defect-free MoS<sub>2</sub>/Ag(Au)(111) heterostructure | Litcius