240 papers
This paper demonstrates that a driven-dissipative system coupling the Landau levels of a charge-neutral particle in a synthetic gauge potential to a quantized optical cavity can be effectively modeled as two highly nonlinearly coupled quantum harmonic oscillators, giving rise to hybrid "Landau polaritons" with unique entanglement, squeezing, and diverse nonequilibrium dynamics.
Using large-scale density matrix renormalization group simulations of the bosonic -- model, this study reveals six distinct quantum phases—including pair density waves and phase-separated ferromagnetic domains—arising from the competition between doped holes and antiferromagnetic order, while proposing a concrete experimental realization in Rydberg tweezer arrays to explore these intertwined orders relevant to high- superconductivity.
This paper demonstrates that Gaussian operations are sufficient to embezzlement arbitrary Gaussian entangled states from ground states of non-interacting critical fermions, establishing embezzlement as a generic property of fermionic Gaussian states and bridging finite-size systems with abstract von Neumann algebra classifications through novel distance bounds.
This study demonstrates that applying uniaxial strain to hexagonal -MnTe detwins its magnetic domains, thereby enabling precise control over the anomalous Hall effect, including the ability to reverse its sign near room temperature, by modifying the electronic Berry curvature without altering the material's altermagnetic phase-transition temperature.
NMR Knight shift measurements on CeRhIn under pressure reveal that the suppression of the dipolar component at the In(1) site and the resulting pressure dependence of the shift are driven by an increase in 4f electron content at the Fermi surface, reflecting electronic structure changes near a Kondo breakdown quantum critical point.
This study reports the successful growth of single-phase B20 MnGe thin films on a nonmagnetic CrSi template via molecular-beam epitaxy, revealing intrinsic magnetic properties including a cone phase and an unexpected low-temperature remanent moment suggestive of a triple-Q topological spin-hedgehog lattice or multidomain helical state.
This paper introduces measurement-dressed imaginary-time evolution (MDITE) as a novel framework for studying mixed-state phase transitions driven by the competition between coherence-restoring dynamics and decoherence, demonstrating the existence of new critical behaviors in one- and two-dimensional models that fall outside known universality classes.
This paper demonstrates that the Yao-Kivelson chiral spin liquid model supports compact localized states and non-Abelian Ising anyons without quasiparticle hybridization, offering a promising framework for quantum simulation of topologically ordered matter and flat-band physics.
This study reports the synthesis and characterization of the 5f-electron kagome metal UCrGe, revealing its unique monoclinic supercell modulation, itinerant uranium behavior, and the presence of chromium-derived flatbands near the Fermi level, which collectively highlight the tunable magnetic ground states within the family.
This paper analyzes the nodal structure of bound-state wave functions in one-dimensional quantum systems with quartic dispersion, demonstrating that while the classical oscillation theorem holds in classically allowed regions, it breaks down in forbidden regions where wave functions exhibit additional nodes, a finding supported by semiclassical, variational, and exact solvable model approaches.
This study utilizes spectroscopic ellipsometry to reveal that the metal-insulator transition in bulk $1T_2$ is a three-dimensional, interlayer-driven percolation process involving evolving metallic domain shapes and an intermediate phase, while also establishing the material as a tunable natural type-II hyperbolic medium.
Inelastic neutron scattering on NaIrO reveals a 1.7 meV magnon gap and antiferromagnetic Heisenberg interactions, distinguishing its magnetic excitations from those in the sister compound -RuCl and demonstrating that low-energy ferromagnetic fluctuations are not a universal fingerprint of Kitaev physics.
This paper investigates the algebraic structure of fuzzy sphere models for 3d CFTs by verifying the Jacobi identity of their density operators, analyzing their behavior in distinct thermodynamic limits, and constructing an explicit conformal algebra representation that reveals a structural mismatch with the thermodynamic limit of critical systems.
Through a soft topotactic reaction, researchers synthesized NiIrO3, the first honeycomb iridate with coupled 3d-5d magnetic sublattices, which exhibits a unique ferrimagnetic order and record-breaking magnetocrystalline anisotropy and coercivity driven by the synergistic effects of lattice frustration and strong spin-orbit coupling.
This study investigates the thermodynamic properties of finite Su-Schrieffer-Heeger chains, revealing a distinct metastable phase marked by heat capacity anomalies that emerges from hopping asymmetry and finite-size effects, thereby uncovering a rich bulk phase structure separate from topological boundary-driven transitions.
This paper establishes a simple thermodynamic framework using ultrafast pump-probe measurements to demonstrate that the ultrafast insulator-to-metal transition in vanadium dioxide is driven by the population of the full thermal phonon spectrum, particularly high-frequency oxygen modes, rather than a single coherent structural mode.
This study utilizes classical Monte Carlo simulations of an effective quadrupole model on a diamond lattice to demonstrate that the competition between magnetic fields and quadrupole anisotropy, mediated by a crucial symmetry-allowed biquadratic interaction, drives successive single- and double- ordering transitions that reproduce the experimentally observed weak-field topology in PrIrZn.
This study demonstrates that controllably introducing disorder via iron cluster deposition in monolayer Fe(Te,Se) drives a superconductor-insulator transition, revealing a disorder-induced quantum phase transition characterized by the evolution from superconducting to insulating U-shaped gaps attributed to localization-enhanced Cooper pair correlations.
This study demonstrates that LaIrO is an orbital-selective spin-orbit Mott insulator where structural distortions and dimerization drive the bands to half-filling for correlation-driven Mott localization, while the bands remain band-insulating.
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.