360 papers
This study reports the absence of orbital Hall magnetoresistance in nonmagnet/ferromagnet bilayers despite the presence of giant orbital torques, revealing that orbital currents undergo isotropic bulk absorption rather than the anisotropic interfacial reflection required for magnetoresistance, while also cautioning against misleading signals from Ni-based systems.
This paper demonstrates that weakly coupled altermagnetic Josephson junctions host spin-polarized Andreev molecules, which induce anomalous nonlocal Josephson effects including tunable phase transitions and a nonreciprocal diode effect, thereby establishing altermagnetism as a promising platform for nonlocal spin Josephson phenomena.
This paper derives a new extended dynamical density functional theory (EDDFT) for nonisothermal binary systems by incorporating momentum and energy densities via the Mori-Zwanzig-Forster projection operator technique, thereby enabling the description of both diffusive and convective dynamics while yielding exact functionals for hard spheres and correctly predicting the speed of sound.
This paper presents a systematic study of few-layer -MoTe that correlates superconducting properties with material parameters and band structure, revealing that highly hole-doped bilayer samples exhibit conventional phonon-mediated -wave pairing.
This paper proposes and validates an active capacitive compensation scheme that utilizes tunable negative capacitance to cancel gate dielectric effects, thereby recovering over 95% of the suppressed topological magnetoelectric signal and enabling robust detection of the four-dimensional quantum Hall effect in axion-insulator devices.
This paper investigates Fabry-Pérot interferometry with stochastically injected Laughlin quasiparticles, revealing how time-domain braiding processes modify the Aharonov-Bohm phase and enable the extraction of anyonic exchange statistics through current noise oscillations and universal Fano factor scaling.
This paper develops a non-equilibrium bosonization framework based on the Keldysh action to analyze charge statistics, Green's functions, and tunneling transport in fractional quantum Hall edges, demonstrating how interaction-induced anyonic fractionalization and braiding phases manifest in measurable observables like the Fano factor for both single-mode and multi-mode systems.
This Perspective argues that metal-organic frameworks (MOFs) offer a uniquely tunable chemical platform for engineering the specific lattice symmetries required to realize and control altermagnetism, thereby advancing the development of spintronic materials beyond traditional inorganic crystals.
This paper demonstrates that focused ion beam irradiation of metastable FeNi thin films induces a localized fcc-to-bcc phase transformation, enabling the precise patterning of ferromagnetic nanostructures with controllable crystallographic orientations and magnetic easy axes driven by residual lattice strain.
This paper provides direct experimental evidence for the superfluid nature of composite bosons in GaAs quantum Hall systems by demonstrating a bulk Meissner-like effect, where a controlled time-varying magnetic field induces quantized charge accumulation to maintain a fixed electron-to-flux ratio, with the screening mechanism transitioning between charge-mediated and fixed-density regimes depending on the presence of a top gate.
This paper investigates odd-parity magnets, demonstrating that specific noncoplanar models exhibit antialtermagnetic magnons with collinear spin textures and a nonrelativistic thermal Edelstein effect, thereby identifying insulating antialtermagnets as promising candidates for magnon spintronics applications.
This study establishes a validated computational framework using rSCAN+ density functional theory to predict the equilibrium morphologies of rock salt, zinc blende, and wurtzite manganese sulfide nanocrystals as a function of sulfur chemical potential, a prediction that is experimentally confirmed by the synthesis of cubic rock salt nanocrystals and oxidative solution calorimetry measurements.
This study demonstrates non-thermal, ultrafast optical control of ferromagnetism in the centrosymmetric material CrGeTe by utilizing a resonant nonlinear Edelstein effect to generate an effective Edelstein-Zeeman field that drives magnetization dynamics, as evidenced by polarization-dependent THz emission spectroscopy.
This paper reports the experimental observation and theoretical confirmation of topological spin-wave moiré edge and cavity modes in twisted magnetic antidot lattices, demonstrating their tunability via magnetic fields and their emergence from non-trivial magnon-magnon coupling driven by dipolar interactions.
This study reports the fabrication of a wafer-scale amorphous silicon carbide thin film with a record-breaking ultimate tensile strength exceeding 10 GPa and room-temperature quality factors above 10^8, establishing a new benchmark for high-performance nanomechanical sensors and dynamic applications.
This chapter reviews and presents new findings on ferromagnetic gyroidal nanostructures, demonstrating how their unique geometric anisotropy, chirality, and demagnetization fields enable controllable spin-wave propagation and multiple low-energy magnetization states, thereby establishing a foundation for their application in 3D magnonics.
This study utilizes time-dependent Ginzburg-Landau simulations to reveal how inhomogeneous magnetic fields from ferromagnetic nanodots drive the nucleation, creep-like deformation, and formation of unique stationary configurations of Abrikosov vortices in hybrid superconductor-ferromagnetic nanostructures, offering critical insights for optimizing nanoscale superconducting systems.
This paper theoretically demonstrates the emergence of Majorana flat bands in the vortex lines of superconducting time-reversal-symmetry-breaking Weyl semimetals by decomposing the system into -resolved Chern insulators, identifying the conditions for their formation, proposing a -resolved Chern-Simons invariant for their characterization, and confirming their realization via attractive Hubbard interactions.
This paper proposes a strategy to design and identify disorder-induced topological Anderson insulators protected by latent symmetries—hidden in the original system but revealed through isospectral reduction—thereby extending topological classification to cases where symmetries are not immediately visible.
This theoretical study investigates magnon-magnon interactions in a two-dimensional Heisenberg-Kitaev honeycomb ferromagnet with Dzyaloshinskii-Moriya interaction, revealing that the critical temperature for temperature-induced topological phase transitions monotonically approaches the Curie temperature as DMI strength increases and is correlated with both DMI and magnetic field strength.