270 papers
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.
This paper establishes a simple thermodynamic framework using ultrafast pump-probe measurements to demonstrate that the ultrafast insulator-to-metal transition in vanadium dioxide is driven by the population of the full thermal phonon spectrum, particularly high-frequency oxygen modes, rather than a single coherent structural mode.
This paper presents a theoretical and experimental demonstration that breaking the in-plane mirror symmetry in one-dimensional antislot photonic crystal waveguides induces hybridization between longitudinal and transverse electric fields, creating tunable hybrid modes and a geometry-dependent photonic bandgap that enables advanced on-chip photonic functionalities.
This paper proposes a novel paradigm combining a topological non-separability measure derived from global Stokes fields with a physics-guided machine learning framework to achieve high-fidelity identification of vectorial vortex beam topological features up to 200, effectively bridging the gap between theoretical invariance and physical observability in extreme complex media.
This paper introduces a symmetry-based framework utilizing the shared Lie algebra to construct total angular momentum coherent state fields, where a single complex parameter enables continuous, joint control of polarization and spatial structure in structured light.
This paper establishes a statistical optics framework demonstrating that ultrafast laser writing of single lattice defects in wide-bandgap semiconductors achieves deeply subdiffraction positioning precision through the interplay of determinism and stochasticity, albeit at the cost of reduced throughput and scalability for integrated quantum photonic systems.
This paper introduces HoloPASWIN, a physics-aware deep learning framework based on Swin Transformers that effectively suppresses twin-image artifacts and achieves robust inline holographic reconstruction by combining hierarchical shifted-window attention with a differentiable angular spectrum propagator for physical consistency.
This study experimentally demonstrates that periodically poled potassium titanyl phosphate (PPKTP) crystals exhibit significantly enhanced thermal stability compared to periodically poled lithium niobate (PPLN) for nonlinear Raman-Nath diffraction and Cherenkov radiation, making them highly promising for parallel optical computing applications.
This paper presents a multiband hybrid metal-dielectric-metal metasurface that leverages coupled gap-surface plasmon and localized surface plasmon modes to achieve tunable resonances and significantly enhanced second-harmonic generation through strong electromagnetic field confinement.
This study demonstrates that using femtosecond Bessel beam laser ablation, rather than Gaussian beams, enables the scalable, defect-controlled synthesis of WS2/CsPbBr3 hybrids with optimized interfacial carrier dynamics and extended lifetimes by leveraging axially extended energy distribution to minimize thermal damage while exceeding electronic destabilization thresholds.
This study presents the first optical characterization of a stable, quasi-freestanding gold monolayer formed by intercalating gold between graphene and SiC, revealing that its modified electronic structure supports mid-infrared plasmon-polaritons with a Drude weight nearly double that of bulk gold, thereby establishing it as a viable two-dimensional metal for nanoscale photonics and electronics.
This paper introduces a novel two-step deep learning pipeline that utilizes only intensity images to simultaneously and accurately estimate all eight degrees of freedom for misalignment and mode mismatch in optical cavities, achieving high precision without the need for complex interferometric hardware.
This paper presents a chip-scale microwave photonic architecture using a dissipative Kerr soliton microcomb to generate broadband, high-purity vortex electromagnetic waves with 15 programmable orbital angular momentum modes, enabling superior forward-looking sensing that overcomes the diffraction limits of conventional microwave systems.
This study demonstrates that the interplay between four-wave mixing and cascade Brillouin lasing in coherently driven passive optical-fibre resonators spontaneously generates highly stable, paracrystalline patterns of temporal cavity solitons locked by long-range acoustic oscillations, a phenomenon accurately described by a unified mean-field model.
This theoretical study demonstrates that pulse-duration-sensitive high harmonic generation in the chiral Weyl semimetal RhSi not only extends to higher photon energies by promoting multi-band excitations but also enables the synthesis of attosecond locally chiral light with pronounced circular dichroism, offering a pathway toward compact chiral light sources and topological electronics.
This study introduces a unified static-limit formulation to compare two scissors-correction schemes for calculating second-harmonic generation in ultraviolet nonlinear-optical crystals, revealing that while both preserve spectral shapes, scheme-N yields systematically larger magnitudes and that apparent violations of Kleinman symmetry in practice stem from sum-rule approximations rather than the underlying theory.
This study reports the observation of significant cubic magneto-optic Kerr effect (CMOKE) contributions in Co(111) thin films, demonstrating that these third-order effects can dominate over linear MOKE at normal incidence and must be accounted for to correctly interpret magneto-optic data.