226 papers
This paper establishes a general topological framework for understanding the local robustness of bound states in the continuum (BICs) by characterizing them as isolated zeros of a parameter-to-coefficient mapping derived from scattering-matrix eigenvectors, thereby providing both a theoretical explanation for their phase singularities and a practical numerical criterion for their detection.
This paper addresses the confusion caused by non-SI quantities and misleading terminology in phase and amplitude noise measurements, advocating for the universal adoption of the International System of Units (SI) and clear, unambiguous language to standardize the field.
This paper presents a nondestructive method for assessing kiwifruit ripeness using near-infrared pulse illumination at 800 nm, introducing two nonmonotonic indices (relative ripeness and the first Wasserstein distance) to quantify temporal light profile changes observed over a ten-day period.
This paper demonstrates a method using a dynamic optical trap with tunable parameters and correlated noise to experimentally realize and systematically study the microrheological response of configurable viscoelastic media, including single- and double-relaxation fluids, which are otherwise difficult to access with real materials.
This paper presents a novel method for fabricating durable, all-glass metasurface lenses using laser-induced self-organizing nanoparticles and ion etching, achieving extremely low broadband reflection and demonstrating a scalable pathway for high-power laser optics.
This invited review surveys the evolution and applications of phase-only spatial light modulators in three-dimensional optical imaging, tracing developments from Fresnel incoherent correlation holography to recent interferenceless coded-aperture systems to highlight advancements in resolution, depth control, and imaging through scatterers.
This paper establishes that the anomalous dispersion segment in soliton-similariton fiber lasers is the primary source of their exceptional stability and low quantum-limited noise, demonstrating through linear stability analysis and simulations that a positive stability margin in this segment directly correlates with reduced timing jitter and intensity noise.
This paper presents a method to eliminate the external knife-edge in schlieren imaging by utilizing a camera lens's internal aperture as the cutoff element, thereby simplifying the setup and reducing costs while maintaining high sensitivity.
This paper identifies a generalized scaling law for conserved orbital angular momentum in harmonic generation driven by diverse spatiotemporal light fields, resolving the limitations of the traditional Laguerre-Gauss topological charge rule and explaining previously unintelligible phenomena.
This paper analyzes how collective effects like longitudinal space-charge and coherent synchrotron radiation induce stochastic phase distortions and spectral broadening in low-energy terahertz optical klystrons, establishing fundamental constraints on their spectral purity and harmonic bunching for future facility design.
This paper demonstrates the first successful closed-loop wavefront shaping capable of maintaining stable optical focusing through rapidly agitated, highly turbid media by operating at a correction bandwidth that matches the medium's sub-microsecond decorrelation rate.
This paper presents a diffusion transformer-based method that achieves fourfold pixel-level super-resolution and fourfold inference speed improvements by transforming low-resolution, unlabeled FTIR microspectroscopic images of human lung tissue into high-resolution, clinically usable H&E-stained images through a stochastic Brownian bridge process in pixel space.
This paper introduces and validates a cascaded, all-optical interleaved diffractive network, optionally coupled with a digital neural network, that successfully recovers optical information transmitted through random and unknown diffusers without requiring digital pre-processing, demonstrating potential applications in biomedical imaging and telecommunications.
This paper demonstrates that by exploiting Lorentz-boost-induced polarization mixing in radially polarized annular optical fields, it is possible to engineer a ponderomotive electron lens that achieves both energy achromatization and negative on-axis chromatic aberration, offering a compact corrector regime for relativistic electron optics.
This paper presents a polarization-multiplexed second-harmonic generation holographic microscope that enables single-shot, label-free 3D imaging of collagen fibers by simultaneously reconstructing orthogonal polarization components to determine molecular orientation and biophysical parameters like helical pitch angle.
This paper demonstrates continuous-streaming high-speed two-photon dual-comb LiDAR using free-running femtosecond lasers to achieve sub-micrometer precision at 11.5 kHz, enabling low-data-burden applications such as capturing audio from mirror displacement without the need for sophisticated stabilization or gigasample-rate digitization.
This paper proposes the Taguchi method as an efficient optimization tool for nonlinear pulse propagation in optical fibers, demonstrating its rapid convergence and effectiveness through applications to guiding center solitons and soliton order conservation in dispersion-decreasing fibers.
This paper demonstrates significantly enhanced supercontinuum generation in silicon nitride waveguides coated with precisely controlled, transfer-free two-dimensional graphene oxide films, achieving up to a 2.4-fold increase in spectral bandwidth compared to uncoated devices.
This paper presents a fully connected neural network-based machine learning approach that significantly accelerates the design and optimization of 2D material-integrated optical polarizers by reducing computational time by four orders of magnitude while maintaining high prediction accuracy validated by experimental results.
This paper proposes that quantum tunneling, rather than classical diffusion, is the fundamental mechanism enabling high-flux ion transport in biological channels, thereby resolving the long-standing discrepancy between theoretical predictions and experimental conductance rates.