278 papers
This study demonstrates that constructing lateral epitaxial heterostructures between PEA2PbCl4 and Sn-alloyed PEA2Pb1-xSnxBr4 suppresses self-trapped exciton emission and significantly enhances carrier mobility by mechanically stabilizing the lattice and facilitating efficient interfacial energy transfer.
This paper presents an open-source, reproducible workflow that bridges density functional theory surface models and quantum algorithms by automatically extracting hydrogen-capped clusters, selecting active spaces, and constructing validated fermionic and qubit Hamiltonians for surface-catalysis systems like IrO2(110) without requiring high-performance computing.
This paper presents a noise-blind source separation technique for space-based faint target detection that utilizes a random dynamic mask modulation scheme to generate super-bunching light and achieve higher-order photon correlation imaging with single-photon detector arrays, enabling ultra-wide dynamic range, high-speed imaging even under extreme background noise and photon-starved conditions.
This paper presents a new four-parameter analytical function for accurately modeling asymmetric alpha peaks, which has been integrated into the established ALF software to enable the deconvolution of up to ten overlapping peaks.
This paper introduces the Motif Symmetry-Breaking Index (MSBI) as a continuous structural descriptor to quantify altermagnetic spin splitting, enabling an interpretable machine learning framework that guides the discovery and design of giant altermagnets through lattice distortion, pressure, and chemical substitution.
This paper introduces FRESH-MRI, a novel method that transforms magnetic susceptibility-induced frequency shifts into quantitative local volume fraction measurements for multiphase flows using standard MRI scanners without the need for calibration, tracers, or specialized hardware.
This paper proposes a zero-parameter scaling law derived from 11-dimensional M-theory geometry that successfully predicts particle masses and lifetimes across the Standard Model by defining a universal "existence budget" governed by topological constraints and a quantized discrete choice, thereby offering indirect evidence for G2-compactified M-theory.
This paper demonstrates that stabilizing a PbZrO₃-derived antiferroelectric framework combined with microstructural engineering enables multistage polarization switching in ceramics, achieving ultrahigh recoverable energy density (15.2 J cm⁻³), high efficiency, and exceptional thermal stability for high-power pulsed power applications.
This paper reformulates spatial structure optimization as a constrained topological free-energy gradient theory within an admissible phase space, introducing complex physical objects and a double-closure requirement to ensure that hard-valid structures evolve toward energy minimization while preserving admissibility.
This study demonstrates that rhombohedral hexalayer graphene serves as a multi-knob platform where carrier density, displacement field, and out-of-plane magnetic field can be tuned to switch between all four spin-valley isospin flavors, establishing a programmable quartet of chiral superconducting states derived from distinct quarter-metal parent phases.