360 papers
This study identifies EuAgSb as a model material for a Fermi surface-driven spiral spin liquid, where diffuse neutron scattering and Monte Carlo simulations reveal that quasi-2D hole-mediated interactions create a manifold of nearly degenerate spin modulations, offering new design principles for materials with intertwined electronic, magnetic, and topological properties.
This paper employs the Takayama-Lin-Liu-Maki model and Abelian bosonization to demonstrate that an external gate voltage induces a sequence of topological phase transitions in trans-polyacetylene molecules, where the ground state evolves through distinct multikink solutions characterized by an integer topological invariant that quantifies both bound charge and dimerization domain walls, with the phase diagram significantly influenced by repulsive Coulomb interactions.
This paper develops a spatiotemporal coupled-mode theory model to quantitatively explain how finite-size constraints induce interference fringes and linewidth broadening in nonlocal metasurfaces, revealing an exponential scaling of quality factor with interaction length and offering design strategies to mitigate these effects.
This paper presents a compact, turnkey packaged, antenna-coupled graphene detector that achieves zero-bias operation with a bandwidth exceeding 43 GHz, overcoming traditional parasitic limitations to enable high-speed sub-terahertz communication and imaging applications.
This paper analyzes and couplings in an all-to-all connected star array of transmon qubits, demonstrating how qubit detuning can be tuned to suppress crosstalk and define an operational region with near-zero coupling while providing analytical equations that match numerical simulations.
This paper establishes that the intrinsic nonlinear thermal Hall effect in altermagnets is governed by specific symmetry selection rules requiring a nontrivial quantum metric and the simultaneous breaking of mirror and twofold rotational symmetries, a condition naturally met by -wave but not -wave systems due to their distinct orbital hybridization properties.
This paper demonstrates that Hilbert-space quantization in polariton lattices enables a dynamical transition between superfluid and Bose-insulating phases, where weak nonlinearity sustains global phase coherence while strong nonlinearity induces inter-level mixing that suppresses coherence.
This study demonstrates that accounting for out-of-plane conductivity in layered materials like PtTe is crucial for accurate spin transport evaluation, as conventional isotropic assumptions significantly overestimate key parameters such as the out-of-plane spin diffusion length and spin Hall conductivity.
This study demonstrates that Coulomb interaction between quantum dots coupled via spatially separated Majorana zero modes lifts destructive interference in the non-interacting limit, thereby unlocking robust Majorana-mediated electron teleportation and strong nonlocal correlations detectable through current cross-correlation noise.
This paper introduces a two-tier extension for the GPU-accelerated micromagnetic framework mumax+ that enables efficient, spatially resolved simulation of multimode cavity magnonics in both ferromagnets and antiferromagnets, successfully validating the tool through eight benchmarks covering phenomena ranging from coherent coupling and mode-selective addressing to dissipative interactions and level attraction.
This paper demonstrates that in 3D magnetic nanowires with azimuthal magnetization, the intrinsic topology of vortex-state domains creates an exchange-spring effect that robustly delays Walker breakdown, while curvature introduces a significant non-reciprocal delay dependent on the chirality of the domain relative to the domain wall's motion.
This paper establishes a theoretical framework for light-induced skyrmion generation in frustrated magnets by demonstrating that Laguerre-Gaussian beam irradiation nucleates skyrmions through distinct mechanisms—stochastic thermal nucleation in the ferromagnetic phase and thermal annealing in the skyrmion-lattice phase—depending on the thermodynamic region.
Using scanning tunneling spectroscopy on indium nanoislands on black phosphorus, this study reveals that asymmetric Coulomb blockade phenomena arise from work function differences in the junctions, establishing a quantitative link between junction-specific electrostatics and the observed dispersive charging resonances.
This paper investigates the emergence of non-quantized fractional topological invariants in open Su-Schrieffer-Heeger chains governed by Lindblad dynamics, demonstrating that while these invariants lose conventional quantization, their total winding can be restored to integer values by extending the Brillouin zone, with observable signatures proposed for photonic lattices via Bloch state tomography.
This paper introduces a one-dimensional Ising model characterized by calcium concentration and myosin-generated force to elucidate the cooperative mechanism of thin filament activation in muscle contraction, successfully validating its predictions against experimental data including the anti-cooperative effects of the drug Omecamtiv Mecarbil.
This study experimentally validates the robustness of chiral edge states in Chern insulator MnBi2Te4 devices by demonstrating that quantized Hall transport persists even when the edge channel is severed by engineered geometric defects created via AFM nanomachining.
This paper presents a trainable neuromorphic spintronic hardware architecture that utilizes analog finite-difference methods to generate on-device gradients, enabling efficient and accurate training of spintronic neural networks despite significant device variability.
This study reveals that the dynamics of charge-density-wave puddles in 2-NbSe give rise to a novel Fano-coupled phonon-CDW hybrid mode, characterized by a low-frequency overdamped oscillation that emerges below 17 K and highlights the critical role of lattice pinning and electronic correlations in stabilizing incommensurate CDW order.
This paper proposes the spin-rotation quantum geometric tensor as a novel probe to experimentally access the intrinsic geometry of persistent spin textures by demonstrating that it generates a unique, direction-independent nonlinear gyrotropic current, thereby overcoming the limitations of conventional geometric measurements in these systems.
This paper presents the first study of ballistic Andreev transport in a two-dimensional HgTe quantum well cavity, demonstrating that two distinct finite-bias conductance peaks arise from different classes of interfering trajectories—one dominated by normal reflection and the other by retro-reflected Andreev processes—which exhibit contrasting responses to magnetic fields due to Aharonov-Bohm and Doppler shift effects.