DFT+DMFT reveals RuO2 sits near the paramagnetic-altermagnetic boundary and itinerant-localized crossover, making its magnetic state tunable by minimal strain due to dynamical correlations.
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3 Pith papers cite this work. Polarity classification is still indexing.
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2026 3verdicts
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Altermagnetic order turns circular Abrikosov vortices into elliptical ones whose orientation follows the magnetic field direction relative to the Néel vector, producing nonreciprocal magnetization curves in pinned superconducting films.
Nonlinear spin conductivity in Floquet non-Hermitian d-wave altermagnets separates into quantum-metric, Berry-curvature and dipole terms and is dominated by the bare quantum metric, with polarization reversing both longitudinal and transverse currents.
citing papers explorer
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Correlation-driven tunability of altermagnetism in RuO$_2$
DFT+DMFT reveals RuO2 sits near the paramagnetic-altermagnetic boundary and itinerant-localized crossover, making its magnetic state tunable by minimal strain due to dynamical correlations.
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Abrikosov vortices in altermagnetic superconductors
Altermagnetic order turns circular Abrikosov vortices into elliptical ones whose orientation follows the magnetic field direction relative to the Néel vector, producing nonreciprocal magnetization curves in pinned superconducting films.
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Quantum Geometry-Driven Nonlinear Spin Currents in Floquet Non-Hermitian Altermagnets
Nonlinear spin conductivity in Floquet non-Hermitian d-wave altermagnets separates into quantum-metric, Berry-curvature and dipole terms and is dominated by the bare quantum metric, with polarization reversing both longitudinal and transverse currents.