Triangular CDW order in 1T-WSH and 1T-WSeH renormalizes EPC from 2.04 to 1.50 and 3.94 to 1.06 while preserving phonon-mediated superconductivity at Tc=12.28 K and 7.75 K.
Enhanced and tunable superconductivity enabled by mechanically stable halogen-functionalized mo2c mxenes.arXiv preprint arXiv:2602.11552, 2026
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First-principles DFT and anisotropic Eliashberg calculations predict two-gap nodeless superconductivity at Tc=3.4 K in BAs3 monolayer from sheet-dependent electron-phonon coupling.
DFT calculations show EPC-driven CDW phonon instabilities in W2N monolayers that compete with superconductivity and can be tuned by halogenation or strain.
citing papers explorer
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Triangular Charge-Density Waves (T-CDW) Stabilize Janus Group-VI Chalcogenide Hydrides
Triangular CDW order in 1T-WSH and 1T-WSeH renormalizes EPC from 2.04 to 1.50 and 3.94 to 1.06 while preserving phonon-mediated superconductivity at Tc=12.28 K and 7.75 K.
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First-Principles Investigation of Electron--Phonon Coupling and Intrinsic Two-Gap Superconductivity in Hexagonal BAs3 Monolayer
First-principles DFT and anisotropic Eliashberg calculations predict two-gap nodeless superconductivity at Tc=3.4 K in BAs3 monolayer from sheet-dependent electron-phonon coupling.
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Electron-Phonon Coupling and Charge Density Wave Instabilities in W2N and Halogen-Functionalized W2N Monolayers
DFT calculations show EPC-driven CDW phonon instabilities in W2N monolayers that compete with superconductivity and can be tuned by halogenation or strain.