981 papers
This paper presents a scalable formal verification methodology for Quantum Phase Estimation circuits that utilizes symbolic qubit abstraction based on quantifier-free bit-vector logic to efficiently verify circuits with over 1,000 qubits while maintaining low memory usage.
This review paper demonstrates that spatial torsion in Metric-Affine Gravity induces non-linear quantum fluctuations affecting spinless degrees of freedom through the Stochastic Variational Method, revealing a competitive interplay with Levi-Civita curvature and a structural parallelism with information geometry.
This paper establishes a cavity-QED framework connecting hexagonal boron nitride color centers with hyperbolic phonon polaritons, demonstrating how single quantum emitters can serve as on-chip sources to generate, control, and mediate long-range interactions of confined mid-infrared polaritons for advanced quantum optics applications.
This paper introduces the two-point propagation field (TPPF), a phase-sensitive quantity derived from single-photon detection probabilities that enables picometer-scale X-ray displacement sensing and deterministic, non-iterative 3D nanometer-resolution tomography by leveraging stable high-frequency sinusoidal structures and Fourier-Radon transformations.
The paper proposes Q-BAR, a hybrid quantum-classical framework that utilizes parameter-efficient variational quantum circuits to detect semantic mutations in online media by modeling creator-specific manifolds, effectively overcoming data scarcity challenges where traditional deep learning models typically fail.
This paper introduces and benchmarks two hybrid quantum-classical methods combining time-dependent Lanczos and matrix-product state approaches with the multi-trajectory Ehrenfest approximation to simulate electron-phonon systems, demonstrating that coupling strongly disordered interacting fermions to classical Einstein phonons induces delocalization and destabilizes many-body localization.
This paper presents exactly solvable quantum models of opinion dynamics that leverage superposition, entanglement, and measurement-induced collapse to simulate consensus formation on networks, with practical validation on IBM Quantum devices demonstrating the potential of near-term quantum computers for social modeling.
This paper introduces the c-delta coefficient, a novel statistical measure that quantifies the similarity of internal divergence patterns between two groups of values to assess whether their variability structures are mirrored, offering a scale-invariant tool for applications ranging from quantum physics to machine learning.
This paper introduces a novel mechanism called exceptional-bound (EB) band engineering that enables system-size-controlled topological transitions in non-Hermitian systems through unique critical scaling near exceptional points, distinct from the non-Hermitian skin effect and applicable to diverse experimental platforms.
This paper demonstrates that the complex-valued non-Hermitian quantum geometric tensor governs intrinsic nonlinear electrical responses in gapped systems, revealing a unique transport mechanism where finite wavepacket width fundamentally alters conductivity—a phenomenon strictly absent in Hermitian systems.
This paper introduces an enhanced post-quantum key agreement protocol that achieves provable, information-theoretic security against quantum adversaries through Rényi entropy-based techniques, distributed polynomial commitments, and quantum-resistant commitments, offering $2^{128}$ security guarantees without relying on computational hardness assumptions.
This paper proposes quantitative evaluation methods for assessing the stability and convergence of numerical solutions to the semilinear Klein–Gordon equation with power-law nonlinearity, while investigating optimal thresholds based on variations in initial value amplitude and mass.
This paper proposes a noninvasive quantum Maxwell demon in a quantum dot system that utilizes an undetailed charge detector and Landau-Zener-Stückelberg-Majorana driving to achieve simultaneous power generation and cooling without continuous measurement or work investment, with optimal performance found in the nonadiabatic regime.
This paper introduces a cryogenic widefield NV-diamond microscope that enables rapid, micrometer-scale imaging of magnetic flux trapping in superconducting devices, revealing critical vortex expulsion behaviors in Nb thin films and offering a high-throughput tool for improving the reliability of scalable superconducting electronics.
This paper explains the asymmetric pattern of breathing mode revivals in a harmonically trapped atomic bright soliton, where emitted atoms return to interfere with the soliton in a non-Markovian environment, by deriving an analytical approximation to the system's Bogoliubov-de Gennes frequency spectrum.
This paper investigates the diffusive behavior of a quantum particle driven by correlated Gaussian noise by deriving the analytical solution for its joint probability density function and obtaining explicit expressions for the mean square momentum and mean square displacement.
This paper experimentally demonstrates on IBM quantum hardware that noise-induced barren plateaus do not necessarily occur, as gradient magnitudes saturate rather than decay exponentially due to -dominated non-unital noise, challenging the assumption that noise universally hinders variational quantum algorithms.
This paper investigates the dynamical consequences of the non-Hermitian skin effect by applying quantum Liang information flow to a non-reciprocal Su-Schrieffer-Heeger model, revealing a scissors effect in directional asymmetry, NHSE-induced information blocking, and three distinct temporal regimes that establish the first quantitative link between static skin localization and directional information dynamics.
This paper introduces RASCqL, a reaction-time-limited architecture that leverages application-tailored qLDPC codes and reconfigurable neutral-atom arrays to achieve significant reductions in qubit footprint and space-time volume for complex quantum algorithms without requiring new hardware capabilities.
This paper proposes and theoretically validates a cavity-based electromagnetically induced transparency (EIT) technique for efficiently measuring the temperature and phonon occupation of trapped ions in the resolved-sideband regime, offering a simplified thermometry tool applicable to both strong and weak coupling cavity QED systems.