858 papers
This paper numerically solves the coupled Einstein-Dirac-Maxwell system to demonstrate that charged Dirac stars exhibit spiral mass-frequency relations and neutron-star-like compactness similar to bosonic stars, existing as gravitationally bound configurations only when the electric charge is less than the fermion mass.
This paper proposes a low-energy classical phenomenological model of the E×B-T Spherical Bessel Standing Wave Soliton that redefines the fine-structure constant as a tangential velocity, bridges macroscopic electromagnetic engineering with microscopic lepton dynamics, and utilizes a spherical Bessel l=1 mode to explain near-point-particle scattering.
This study introduces an XGBoost-multi-objective Bayesian Optimization framework to design functionally graded CsPbBr₃₋ₓClₓ/MoS₂ heterostructure photodetectors, achieving record-breaking broadband UV-Visible performance metrics while reducing computational costs by 96.8% compared to traditional simulation methods.
This paper constructs an explicit state-resolved Hawking channel in matrix black-hole quantum mechanics that demonstrates how a protected area-law quantum memory can coexist with thermal Hawking radiation while preserving unitary information transfer through exact symmetries and branching isometries.
This paper demonstrates the creation and 20-day continuous operation of three parallel all-optical time scales using optical flywheels and an optical frequency standard, which achieve superior short-term stability and sub-100 picosecond total time difference compared to traditional maser-based systems, paving the way for the future of optical timekeeping.
This study demonstrates that superconductivity in freestanding La0.8Sr0.2NiO2 membranes remains robust under ultrahigh pressures up to 210 GPa, exhibiting a dome-like transition temperature evolution that peaks at 74.5 K, a phenomenon unprecedented in high-Tc oxide superconductors.
This paper theoretically demonstrates that employing squeezed thermal reservoirs in a three-level quantum heat engine significantly enhances both efficiency and power output, enabling performance beyond the classical Carnot limit and allowing tunable operation across heat engine, refrigerator, and heat pump regimes.
This paper proposes a long-range nuclear potential as a unified physical mechanism that successfully explains the observed reaction law and energy-independent elastic scattering in light nuclides, overcoming the limitations of short-range force models and resonance-based frameworks.
This paper proposes the Principle of Maximum Informational Complexity (PMIC), a variational framework asserting that physical reality is the unique mathematical structure maximizing the net information score of observer-state repertoire minus law-description cost, thereby deriving fundamental symmetries and predicting specific fine-tuned constants like the cosmological constant and fine-structure constant as necessary peaks in an information landscape rather than arbitrary anthropic coincidences.
This paper proposes a novel route to engineering unconventional chiral superconductivity with critical temperatures up to a few Kelvin by coupling electron systems to the vacuum fluctuations of quantized magnetic flux in a superconducting LC circuit, thereby inducing long-range attractive interactions between electron angular momentum states.