First-principles calculations identify a pressure-tunable antipolar phase in hexagonal LaN with antiferroelectric-like behavior and a switchable energy barrier to the wurtzite polar phase.
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Carbon defects in TMD bilayers are computationally shown to enable room-temperature defect-mediated quantum emission at telecom wavelengths with material-dependent optical fingerprints.
The Wigner Transport Equation predicts coherence-dominated nondiffusive thermal transport causing significant deviations from bulk conductivity in CsPbBr3 and La2Zr2O7 at length scales of hundreds of nanometers to microns at room temperature.
Raman measurements and ab initio calculations show anisotropic electron-phonon coupling and chiral phonons in room-temperature ferromagnetic Fe5GeTe2.
citing papers explorer
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Uncovering Antipolar Ordering and Pressure-Tunable Phases in Hexagonal LaN
First-principles calculations identify a pressure-tunable antipolar phase in hexagonal LaN with antiferroelectric-like behavior and a switchable energy barrier to the wurtzite polar phase.
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Quantum Emitters at Telecommunication Wavelengths based on Carbon Defects in Transition Metal Dichalcogenides
Carbon defects in TMD bilayers are computationally shown to enable room-temperature defect-mediated quantum emission at telecom wavelengths with material-dependent optical fingerprints.
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Transition from population- to coherence-dominated nondiffusive thermal transport
The Wigner Transport Equation predicts coherence-dominated nondiffusive thermal transport causing significant deviations from bulk conductivity in CsPbBr3 and La2Zr2O7 at length scales of hundreds of nanometers to microns at room temperature.
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Anisotropic electron-phonon coupling and chiral phonons in van der Waals room temperature ferromagnet Fe$_{5}$GeTe$_{2}$
Raman measurements and ab initio calculations show anisotropic electron-phonon coupling and chiral phonons in room-temperature ferromagnetic Fe5GeTe2.