266 papers
This paper presents a spatially coherent full-field swept-source optical coherence microscope (SC-FFOCM) that combines computational refocusing and a repetitive acquisition protocol to achieve cellular-resolution, long-depth 3D imaging and visualize intra-tissue dynamic activities in human breast adenocarcinoma spheroids.
This paper reviews simulation models and techniques for high-power semiconductor lasers, addressing key challenges such as optical field peculiarities, substrate waveguide competition, modal instabilities, thermal lensing, and power-limiting factors like spatial holeburning.
This paper presents a general theoretical framework for calculating the intrinsic linewidth of photonic-crystal surface-emitting lasers (PCSELs) by modeling spontaneous emission via a classical Langevin force, deriving key parameters like the Petermann and Henry factors, and demonstrating that the theory predicts kilohertz-range linewidths for watt-level output powers in agreement with experimental results.
This paper demonstrates the generation of low-noise, high-purity, and indistinguishable single photons via single phonon-photon conversion in a quasi-two-dimensional optomechanical crystal, overcoming thermal noise limitations to enable scalable quantum networks with mechanical oscillators.
Using terahertz emission spectroscopy on wedge-shaped heavy metal|Ni heterostructures, this study provides the first direct experimental evidence that orbital mean free paths in heavy metals are ultrashort (sub-nanometer scale) and shorter than spin counterparts, confirming that bulk inverse orbital Hall effect governs orbital-to-charge conversion.
This paper demonstrates a compact, passive, and fully optical nonlinear neuron activation function using PPLN nanophotonic waveguides that achieves 80% conversion efficiency and enables high-speed, scalable all-optical neural networks capable of matching digital performance in real-world tasks.
This paper presents a fast and robust authentication method for optical Physical Unclonable Functions (PUFs) that utilizes the Scale Invariant Feature Transform (SIFT) algorithm to reliably extract unique features from speckle patterns, enabling secure verification even under geometric distortions like rotation, zooming, and cropping.
This study demonstrates that the interplay between magnon-induced Brillouin light scattering and optical spin-orbit coupling enables the nonreciprocal transformation of a Gaussian beam into an optical vortex beam by simultaneously breaking temporal symmetry via magnetic ordering and spatial symmetry via light focusing, thereby revealing that magnons can control the total angular momentum of light.
This paper derives an exact, general expression for current multipole moments and establishes their mapping to classical moments, enabling the precise characterization of arbitrary electromagnetic scatterers—including nonradiating anapole configurations—across all sizes and multipole orders.
This paper presents the design and experimental demonstration of an integrated RGB beam combiner in aluminum oxide photonic circuits, featuring on-chip Mach-Zehnder modulators and gratings to achieve independent color routing and thermo-optic modulation for compact AR/VR and holographic display applications.
This paper presents passive analysis techniques for determining angular trap stiffness in rotational optical tweezers, addressing unique rotational factors such as ancillary beam interference, shape-induced birefringence, and hydrodynamic effects to improve nanoparticle-scale mechanical probing.
This paper demonstrates that the topological configuration of plasmonic spin meron lattices can be switched between Néel and Bloch types with height-dependent fractional charges through the controlled interplay of evanescent surface plasmon polaritons and edge-diffracted fields.
This paper demonstrates that spatially localized free-space electromagnetic wavepackets inherently exhibit a subluminal group velocity and a superluminal phase velocity whose product equals , a conclusion validated through classical field theory, scalar wavepacket analysis, and quantum-mechanical formalism.
This paper demonstrates the generation of orbitally resolved single-photon emission from individual atomic vacancy centers in a semiconductor by utilizing a scanning tunneling microscope to achieve sub-nanometer spatial resolution and electrical addressability, thereby advancing the development of solid-state spin-photon interfaces.
This paper proposes an optical analogue of the cycloid's tautochrone property to focus ultrashort pulses for enhanced nonlinear effects, enabling the creation of temporal optical limiters, multistable systems, and a quantum blockade regime with strong antibunching.
The authors propose a monolithic, electrically driven photon pair source that integrates a semiconductor laser with a non-linear AlGaAs Bragg reflection waveguide, utilizing lateral tapers to achieve efficient vertical mode coupling and type-II spontaneous parametric down conversion while avoiding free-carrier absorption losses.
This paper proposes a scalable time-multiplexed photonic network based on coupled ring resonators that accurately emulates the dynamics of Hopfield-like and Tavis-Cummings Hamiltonians, offering a versatile framework for simulating interacting light-matter systems and collective many-body phenomena.
This paper presents the first theoretical and experimental realization of two-dimensional Floquet non-Abelian band topology in photonic scattering networks, demonstrating unique multi-gap topological phenomena such as anomalous phases, Euler transfers, and non-Abelian braiding of band nodes.
This paper introduces an erasure-Pauli channel model to derive rigorous bounds on the optimal two-way assisted rates of polarization entanglement distribution in optical fibers, establishing a benchmark for long-distance quantum communication that remains robust against polarization mode dispersion and detector dark counts.
This paper analyzes and mitigates spatial-spectral correlations in Spontaneous Parametric Down Conversion (SPDC) sources to engineer bright, high-purity Orbital Angular Momentum (OAM) entangled photons, thereby enabling scalable high-dimensional quantum technologies without the need for lossy filtering.