Monte Carlo simulations show dipole-dipole interactions stabilize Bloch skyrmions at zero magnetic field while electric fields continuously tune helicity toward Néel type in centrosymmetric triangular magnets.
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Numerical demonstration that valley edge states in photonic crystals support propagating, valley-locked optical spin merons as eigenstates with topological protection against defects.
Monte Carlo simulations of a Kagome Kondo-lattice model show that intrinsic Berry-curvature transport dominates in the skyrmion phase while extrinsic skew scattering from dynamical spin-chirality fluctuations dominates near order-disorder transitions, with opposite signs explaining experimental sign
Non-uniform electric fields from charged tips can create, drive, annihilate Néel skyrmions and more complex textures like skyrmioniums.
Generalized ML force fields reproduce non-collinear magnetic orders on lattices and predict voltage-driven domain-wall motion in itinerant magnets using extensions to nonequilibrium torques.
citing papers explorer
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Skyrmion Phase Control by Magnetic Dipole-Dipole Interaction and Electric Field in Centrosymmetric Materials
Monte Carlo simulations show dipole-dipole interactions stabilize Bloch skyrmions at zero magnetic field while electric fields continuously tune helicity toward Néel type in centrosymmetric triangular magnets.
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Valley-locked Optical Spin Merons in Valley Photonic Crystal Waveguides
Numerical demonstration that valley edge states in photonic crystals support propagating, valley-locked optical spin merons as eigenstates with topological protection against defects.
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Anomalous Hall and Nernst effects driven by static and fluctuating spin chiralities on Kagome lattice
Monte Carlo simulations of a Kagome Kondo-lattice model show that intrinsic Berry-curvature transport dominates in the skyrmion phase while extrinsic skew scattering from dynamical spin-chirality fluctuations dominates near order-disorder transitions, with opposite signs explaining experimental sign
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Manipulation of magnetic skyrmions by non-uniform electric fields
Non-uniform electric fields from charged tips can create, drive, annihilate Néel skyrmions and more complex textures like skyrmioniums.
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Machine-learning modeling of magnetization dynamics in quasi-equilibrium and driven metallic spin systems
Generalized ML force fields reproduce non-collinear magnetic orders on lattices and predict voltage-driven domain-wall motion in itinerant magnets using extensions to nonequilibrium torques.