127 papers
This study demonstrates that magnetic penetration depth measurements in UTe can directly probe Majorana surface states and distinguish between different topological pairing symmetries, as surface contributions dominate the low-temperature scaling behavior in low- superconductors while bulk quasiparticles govern the response in high- regimes.
This paper develops a microscopic formalism to demonstrate how impurity-enabled electron-phonon coupling generates hybridized, massless nemato-elastic collective modes near a nematic quantum critical point, revealing a complex landscape of underdamped and overdamped dynamics with significant implications for nematic-fluctuation-mediated superconductivity.
This study reveals that confined active nematics can transition from chaotic flows to ordered, periodic dynamics through stable orbits of disclinations, where the specific "braid" patterns (such as "golden" and "silver" braids) emerge from a balance between the number of defects and flow vortices under strong confinement.
This paper presents a scalable, all-water supercapacitor ("blue capacitor") constructed from abundant clay and graphene that utilizes 1-nm nanoconfined water as a sole electrolyte to achieve high voltage stability, near-perfect efficiency, and exceptional cycle life.
This paper establishes that the paramagnon-interference mechanism drives the emergence of a commensurate 3D $2\times 2\times 2_3_5$, with the specific stacking pattern determined by the third-order Ginzburg-Landau term and the quasi-2D nature of the Fermi surface.
By measuring microsecond-resolved spontaneous magnetization fluctuations in Dy2Ti2O7, researchers directly detected dynamical heterogeneity in a supercooled magnetic monopole fluid, observing a sharp bifurcation in monopole noise and the emergence of correlated current bursts that evolve with escalating spatiotemporal scales as the system approaches the glass transition.
This paper proposes a solution to the inverse problem of inferring a cell's three-dimensional pressure field from the one-dimensional height profile of a thin elastic membrane measured via Protrusion Force Microscopy, while also exploring the method's regime of applicability in experimental contexts.
This paper presents a general theoretical framework for Majorana box qubit parity readout across the dispersive-to-resonant crossover, demonstrating that while semiclassical factorization is quantitatively accurate in the dispersive regime, it introduces small but measurable deviations in the resonant regime when compared to exact numerical solutions of the Lindblad master equation.
This paper demonstrates that skyrmions in ferrimagnetic films exhibit a gyroscopic cyclotron resonance analogous to that of electrons in metals, enabling the unambiguous measurement of skyrmion mass and revealing a frequency dip near the angular momentum compensation point where the mode hybridizes with ferromagnetic resonance.
This paper introduces linear control theory as a predictive framework for jammed amorphous materials, demonstrating that average controllability effectively forecasts particle rearrangement dynamics under shear stress and reveals how optimal time scales for this metric provide physical insight into the system's vibrational eigenmodes.
This study reveals that in the Janus MXene Mo2NF2, a charge density wave instability driven by momentum-dependent electron-phonon coupling competes with superconductivity, but the latter can be enhanced and the former suppressed through compressive biaxial strain, thereby establishing Mo2NF2 as a tunable platform for controlling the interplay between these two quantum phases.
This paper introduces a dynamical mean-field model that explains how temperature gradients drive convective phase separation in attractive particle systems, revealing that the transition to periodic patterns is governed by a dominant unstable mode and results in robust steady-state convective currents.
This paper establishes a continuum field theory description for random ensembles of two-dimensional fermionic matchgate tensor networks, demonstrating that their disorder-averaged physics corresponds to a nonlinear sigma-model of symmetry class D with a topological term, thereby linking these discrete networks to the thermal quantum Hall problem and revealing a phase structure that includes localized phases, quantum Hall criticality, and a thermal metal.
This paper utilizes Ginzburg-Landau theory to demonstrate that the coexistence of -wave altermagnetism and superconductivity in thin films produces characteristic fourfold anisotropies in critical temperature, parallel critical field, and critical current density, providing experimentally accessible signatures for detecting altermagnetism.
This paper proposes a trap-enhanced negative-capacitance FET using amorphous oxide semiconductors, demonstrating that channel traps can paradoxically improve steep-slope switching by enhancing the negative potential drop of the ferroelectric layer, thereby overcoming performance degradation issues in back-end-of-line 3D integrations.
This paper experimentally demonstrates that environmental memory in non-Markovian systems can be harnessed as a thermodynamic resource to extract work exceeding the energy stored in observable degrees of freedom, thereby establishing concealed memory as a viable fuel for information engines.
This paper investigates a deformable spin-1/2 Ising chain under magnetic fields, revealing that longitudinal fields induce discontinuous thermal phase transitions with hysteresis, whereas transverse fields drive a continuous quantum phase transition, with both scenarios exhibiting distinct anomalies in magnetic and elastic properties.
This paper investigates stochastic resonance in coupled bistable oscillators on higher-order networks driven by colored noise, revealing that the interplay of pairwise and 2-simplex couplings exacerbates the noise-induced suppression of resonance by promoting the spatial propagation of synchronization extremes.
This paper presents a quantitative spectral study of unitary Fermi gases using an advanced pairing fluctuation theory with self-consistent feedback to explain recent experimental evidence of a pairing-induced pseudogap.
This paper presents a generalized, numerically stable Parratt formalism for simulating neutron and X-ray reflectivity in anisotropic multilayer systems, overcoming the instabilities associated with the traditional method of characteristic matrices while also addressing rough interfaces.