Realistic exciton-phonon coupling is too weak for Dyakonov-Perel motional narrowing in MoS2; full-Brillouin-zone intervalley scattering shortens valley depolarization 3–4× to ~50 fs (300 K) and ~130 fs (10 K).
and Heinz, Tony F
6 Pith papers cite this work, alongside 2,058 external citations. Polarity classification is still indexing.
6
Pith papers citing it
2,058
external citations · OpenAlex
citation-role summary
background 3
citation-polarity summary
years
2026 6roles
background 3polarities
background 3representative citing papers
Nanostructure geometry on suspended van der Waals membranes provides deterministic control of multiaxial strain and bandgap profiles in 2D materials like Ga2Se2, with a two-component analytical model predicting shifts to within 12% error and extendable to other materials.
Monolayer CrC2N4 exhibits a direct band gap at K/K' valleys with 51.9 meV valence-band spin splitting from SOC and strain-tunable gap and optical response from 1.987 to 1.421 eV.
High-energy transitions in monolayer WSe2 show delayed dynamics relative to lower-energy excitons, attributed via transient absorption and first-principles calculations to phonon-mediated formation of momentum-dark excitons.
Spin-dependent tunneling competes with intervalley scattering to set photoluminescence polarization dynamics in TMD/magnetic vdW heterostructures, enabling sign switching under circular excitation.
Exciton polaritons in microcavities form synthetic photonic crystals with engineered band structures and interactions for exploring many-body physics from mean-field to quantum regimes.
citing papers explorer
-
Exciton valley depolarization in monolayer MoS2: non-Markovian quantum dynamics, intervalley scattering, and the breakdown of the Dyakonov-Perel mechanism
Realistic exciton-phonon coupling is too weak for Dyakonov-Perel motional narrowing in MoS2; full-Brillouin-zone intervalley scattering shortens valley depolarization 3–4× to ~50 fs (300 K) and ~130 fs (10 K).
-
Deterministic Realization of Complex Local Strain Fields and Bandgap Profiles in Two-Dimensional Materials
Nanostructure geometry on suspended van der Waals membranes provides deterministic control of multiaxial strain and bandgap profiles in 2D materials like Ga2Se2, with a two-component analytical model predicting shifts to within 12% error and extendable to other materials.
-
Robust Spin Splitting and Strain-Controlled Optical Response in Monolayer CrC2N4 for Valleytronic and Optoelectronic Applications
Monolayer CrC2N4 exhibits a direct band gap at K/K' valleys with 51.9 meV valence-band spin splitting from SOC and strain-tunable gap and optical response from 1.987 to 1.421 eV.
-
Nonequilibrium dynamics of high energy transitions in monolayer WSe$_{2}$
High-energy transitions in monolayer WSe2 show delayed dynamics relative to lower-energy excitons, attributed via transient absorption and first-principles calculations to phonon-mediated formation of momentum-dark excitons.
-
Effect of spin-dependent tunneling and intervalley scattering in magnetic-semiconductor van der Waals heterostructures on exciton and trion polarization
Spin-dependent tunneling competes with intervalley scattering to set photoluminescence polarization dynamics in TMD/magnetic vdW heterostructures, enabling sign switching under circular excitation.
-
Synthetic Polariton Matter in the solid state
Exciton polaritons in microcavities form synthetic photonic crystals with engineered band structures and interactions for exploring many-body physics from mean-field to quantum regimes.