278 papers
This paper proposes the Temporal Scale Invariance Hypothesis, which posits that the distinction between quantum and classical realms arises solely from time scale differences mediated by a "temporal wake" field, offering a unified framework that explains quantum phenomena, connects them to gravity, and predicts testable phase transitions between physical regimes.
This study demonstrates that sequential, chirality-matched Moiré lattice illumination (specifically honeycomb followed by square patterns) can non-invasively interact with and suppress light scattering from the two-level chiral structure of collagen in intraocular lenses, suggesting a novel optical mechanism for treating vitreous floaters.
This paper introduces Extended Structural Dynamics (ESD), a kinetic framework modeling constituents as spatially extended objects to derive hyperbolic-parabolic transport laws that resolve classical hydrodynamic limitations by predicting finite signal speeds, intrinsic shock regularization, and anisotropic transport, with order-of-magnitude estimates suggesting experimentally testable phenomena like Mpemba crossovers and structural shock widths.
This study reports a statistically significant, anomalous gravitational anisotropy in rapidly rotating macroscopic masses that suggests a novel coupling between internal radial stress and spacetime metrics, potentially offering a non-linear explanation for astrophysical discrepancies like pulsar braking anomalies and spacecraft flyby deviations.
This paper proposes a unified topological framework based on an Extended Equivalence Principle and symplectic involution at null boundaries to geometrically resolve the Black Hole Information Paradox, derive the Standard Model mass hierarchy and gauge parameters, and explain the Baryon Asymmetry by sequestering antimatter within stable, self-braided hadronic knot topologies.
This paper demonstrates that a Fourier Neural Operator outperforms Convolutional Neural Networks and Fully-Connected Layers in generating electric potential fields for surface ion traps, achieving a 0.02% error rate and operating ten times faster than conventional simulation methods.
This study extends the semi-empirical mass formula to a ten-term model and demonstrates that regional fitting of coefficients to specific nuclear datasets significantly outperforms global fitting in accurately predicting the binding energies of tightly bound nuclei and their beta-decay stability trends.
This study establishes quantitative design rules for biaxial strain-tunable MoS₂/WSe₂ van der Waals heterostructures by demonstrating that applying up to 2% tensile strain systematically reduces the bandgap and optimizes interlayer charge transfer, thereby enhancing broadband photodetector performance with peak responsivity and detectivity at 1.5% strain.
This paper introduces a method to decouple oxygen vacancy formation energies in mixed ionic and electronic conducting oxides into distinct oxide ion removal and electron redistribution contributions, enabling independent tuning of ionic defect energetics and electronic alignment through specific chemical substitutions.
This paper reports a novel vapor-liquid-liquid-solid (VLLS) synthesis method for producing high-quality, single-crystalline NbP Weyl semimetal nanowires with controllable orientations that exhibit significantly reduced resistivity and high breakdown current density due to dominant topological surface state transport.