Nonlinear spin-wave theory with self-energy corrections and two-magnon bound-state resummation quantitatively matches CrBr3 magnon data up to Tc and finds thermally reduced but stable gaps in gapped Dirac materials like CrI3, with a ~5% DMI/exchange ratio criterion for observability.
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Light-matter coupling expansion of the magnon Hamiltonian yields the Fleury-Loudon Raman vertex, directly connecting Raman circular dichroism to magnon band Berry curvature.
First-principles calculations show robust charge properties but tunable spin Berry curvature, spin Hall conductivity, and magnon excitations in strained CrSiSe3 monolayer under electric fields up to 0.3 V/Å.
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Fate of Topological Dirac Magnons in van der Waals Ferromagnets at Finite Temperature
Nonlinear spin-wave theory with self-energy corrections and two-magnon bound-state resummation quantitatively matches CrBr3 magnon data up to Tc and finds thermally reduced but stable gaps in gapped Dirac materials like CrI3, with a ~5% DMI/exchange ratio criterion for observability.
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Light-Matter-Coupling formalism for magnons: probing quantum geometry with light
Light-matter coupling expansion of the magnon Hamiltonian yields the Fleury-Loudon Raman vertex, directly connecting Raman circular dichroism to magnon band Berry curvature.
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Spin Response Properties in Electronically Robust Ferromagnetic Strained $\text{CrSiSe}_3$ Monolayer under External Electric Fields
First-principles calculations show robust charge properties but tunable spin Berry curvature, spin Hall conductivity, and magnon excitations in strained CrSiSe3 monolayer under electric fields up to 0.3 V/Å.