226 papers
This paper presents a scalable optical neural network architecture that utilizes nonlocally coupled coherent light and multiport directional couplers to achieve matrix-vector multiplication with a linear scaling of active components, overcoming the quadratic limitations of conventional Mach-Zehnder interferometer meshes.
This paper introduces the Bragg Frequency Convertor, a spatial-temporal periodic structure that achieves selective, directional, and spurious-free parametric frequency conversion by exploiting the synergistic interplay between the intrinsic spatial periodicity of a Bragg grating and the time modulation of its specific layers.
This study quantitatively demonstrates that refractive index heterogeneity in samples distorts focal fields and reduces pump-probe overlap in stimulated Brillouin scattering microscopy, leading to attenuated gain and degraded precision while invalidating fiber-coupling efficiency as a linear proxy for Brillouin gain.
This paper presents a unified theoretical and experimental framework that mitigates atmospheric turbulence-induced distortions in Gaussian beams by employing a Cholesky-whitened Gram–Charlier expansion to quantify non-Gaussianity and utilizing a dielectric waveguide as a passive spatial filter to suppress higher-order modes, thereby restoring beam stability and Gaussian statistics.
This paper presents a unified theoretical framework linking polarization and coherence correlations to scintillation in atmospheric turbulence, demonstrating that controlling both properties through polarization and pseudo-random phase modulation can effectively mitigate scintillation in free-space optical communication links.
This paper demonstrates a cavity-enhanced ultraviolet dual-comb source at 323 nm, generated via sum-frequency mixing of near-infrared chirped-pulse electro-optic combs with a 532 nm field, achieving a 100-fold power enhancement that enables high-resolution spectroscopy of rubidium atoms.
This paper presents the design and multi-dimensional performance analysis of a lightweight, off-axis four-mirror laser transmitting telescope for space gravitational wave detection, demonstrating that the optimized structure achieves high optical efficiency, nanometer-level surface stability, and robust thermal and dynamic performance under harsh space conditions.
This paper experimentally investigates light transmission through dense atomic vapor, demonstrating that the propagation can be modeled as a Lévy flight with a length-dependent local power exponent and a step-length distribution that alternates based on atomic collisions, where the measured Lévy index is determined by the system size.
This study reveals that large differential attosecond delays in photoemission from BiTe and BiSe arise from strong energy-dependent variations in final-state dynamics caused by multiple surface scattering, rather than intra-atomic effects or ballistic transport.
This paper theoretically demonstrates that Landau level transitions in monolayer WTe2 induce a giant, tunable photonic spin Hall effect driven by Hall-conductivity-induced Hall angles, enabling nanoscale light manipulation with displacements exceeding 400 times the incident wavelength.
This paper presents a constructive, closed-form method to generate Floquet-Bloch states for the Hill equation directly from arbitrary linearly independent solutions using the monodromy or transfer matrix, thereby providing a versatile framework for analyzing periodic systems without requiring canonically normalized solutions.
This paper demonstrates that super-resolution fluorescence fluctuation microscopy is a rapid and effective method for imaging localized exciton instability caused by interfacial disorder in monolayer semiconductors, offering a practical alternative to atomic force microscopy and hyperspectral imaging for evaluating material quality in nanoscale devices.
This paper experimentally demonstrates and theoretically models nonlinear mode coupling in high-stress silicon nitride membrane resonators, revealing how tension-mediated geometric nonlinearity and mode symmetry govern intermodal interactions to enable controllable multimode frequency tuning.
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.
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.
This paper re-examines a recent experiment challenging Bohmian mechanics by demonstrating that the data can be fully explained within Bohmian, Nelson's stochastic, and orthodox quantum frameworks, thereby concluding that the experiment is inconclusive in favoring or refuting any specific interpretation.
This paper provides a theoretical framework demonstrating how entanglement between optical field modes can be distilled into genuine entanglement between the physical wavefunctional degrees of freedom of photons, thereby clarifying the critical role of measurement context and subsystem definition in quantum optical systems.
This paper demonstrates a scalable quantum photonic platform by heterogeneously integrating high-Q diamond photonic crystal cavities with a thin-film lithium niobate backbone, enabling efficient, low-loss photon transfer and collection from silicon vacancies for practical quantum networking.
This paper demonstrates a reversible, non-destructive method to enhance blue single-photon emission from hexagonal boron nitride at room temperature by using mid-infrared co-excitation to resonantly drive defect-localized phonon modes, thereby modulating carrier dynamics through phonon-assisted recombination.