227 papers
This paper demonstrates that light scattering from pairs of point-like dipoles exhibits exact resonances when the dipoles violate the optical theorem (indicating nonequilibrium or active conditions), leading to potentially infinite scattering amplitudes, while similar but finite resonances in equilibrium systems can still yield significant amplification factors.
This study numerically demonstrates that vertically oriented hollow gold nanocavities coupled to monolayer MoS2 can spectrally tune and significantly enhance A and B excitonic emission through geometry-controlled plasmon resonance, achieving up to 144-fold photoluminescence increases and enabling precise engineering of excitonic peak ratios for advanced valleytronic and sensing applications.
This paper predicts and analytically characterizes boundary-driven exceptional points in semi-infinite Hermitian photonic waveguide lattices with a side-coupled defect, demonstrating how coherent reflections induce non-Markovian memory effects that enable precise tuning of resonance coalescence through the defect's position and coupling strength.
This paper proposes that moire excitons in two-dimensional superlattices exhibit cooperative quantum optical phenomena, such as tunable superradiant and subradiant states and extreme optical switching, driven by their real-space lattice structure and controllable via electric fields, strain, or twist angle adjustments.
This paper investigates quantum correlations in an axially symmetric qubit-qutrit system and establishes a robustness hierarchy where Bell nonlocality is the most fragile, followed by entanglement (Negativity), while Measurement-Induced Non-locality (MIN) and Uncertainty-Induced Nonlocality (UIN) prove to be the most resilient resources against thermal noise and anisotropy.
This paper presents the design and characterization of an "ultraslow optical centrifuge" capable of generating linearly polarized fields with arbitrarily low angular acceleration, demonstrating its tunability and successful application in spinning CS molecules for potential use in controlling molecular rotation within viscous media.
This paper introduces the Variable Coherence Model (VCM) to simulate free-electron laser pulses, demonstrating that a variable coherence width parameter enables continuous control over pulse noise and sub-pulse statistics while maintaining fixed average parameters, thereby bridging the gap between maximally random and fully coherent regimes for applications such as absorption simulations.
This paper presents a broadly tunable quantum-enhanced stimulated Raman scattering microscopy platform that utilizes amplitude-squeezed light to achieve a record-breaking 51% signal-to-noise ratio improvement and 3.6 dB noise suppression for high-speed, sensitive imaging of metabolites in biological tissue.
This study utilizes a 3D eye model and ray tracing simulations to determine that optimal few-photon vision experiments require stimuli to be presented at an inferior angle of 12.6 degrees relative to the visual axis, with alignment precision better than 0.90 degrees to ensure stimuli reach the retina's most sensitive region.
This paper presents an image recovery algorithm that utilizes multiple harmonics and total variation regularization to estimate true phase stepping positions, effectively eliminating Moiré artifacts in attenuation, differential-phase, and dark-field images generated by grating interferometers.
This paper demonstrates that higher-order Poincaré modes with tunable Pancharatnam topological charges can induce a free-space paraxial optical Hall effect, enabling precise control of spin-orbit interaction, chirality, and spin angular momentum through intrinsic field topology without requiring material interfaces or tight focusing.
This paper demonstrates that by accounting for dispersion and absorption, photonic time crystals can convert dipole emission into broadband dipole absorption across a wide frequency range free of exceptional points, overcoming the narrowband and instability limitations typically associated with parametric resonance in these systems.
This paper proposes a super-resolution iterative reconstruction method for analyzer-less X-ray grating interferometry that enables high-quality multi-modal imaging with reduced dose and relaxed detector sampling requirements, overcoming the limitations of traditional algorithms.
This paper establishes a quantum statistical framework for passive optical surface metrology, demonstrating that spatial mode sorting can achieve near-quantum-limited estimation and enhanced detection of sub-diffraction defects like cracks without requiring active illumination control.
This paper reports the experimental simulation of a two-boson quantum piston on a programmable photonic quantum computer, demonstrating how bosonic interference reshapes non-equilibrium work statistics and validating thermodynamic fluctuation relations like the Jarzynski equality across various driving protocols.
This paper demonstrates that while orbital angular momentum (OAM) entanglement is highly susceptible to degradation in stochastic channels like atmospheric turbulence, an underlying topological observable remains robustly preserved even in mixed, decoherent states, offering a new pathway for maintaining quantum information in noisy environments.
This paper establishes a scattering-matrix framework to demonstrate that exceptional points can genuinely enhance quantum Fisher information for sensing compared to isolated modes, provided the system optimizes the trade-off between non-normal spectral response and decay rates, while remaining robust against small internal losses.
This paper reports the first visualization of tripartite entanglement dynamics through remotely controlled spin-skyrmion states, introducing a topological Bloch sphere to characterize quantum multiskyrmions and demonstrating how entanglement drives particle-like topological motion for potential applications in quantum sensing and multi-level encoding.
This paper presents the successful development, installation, and commissioning of a modular and extensible control system for Fresnel zone plate zooming optics at KEK's AR-NE1A beamline, utilizing the STARS framework and the new CCDC command set to ensure reliable operation, enhanced flexibility, and interoperability for both routine and advanced experimental protocols.
This paper proposes a VCSEL-enabled holographic LiFi paradigm that integrates high-speed data transmission with real-time sensing and positioning via digital twins to overcome mobility and alignment challenges, transforming access points into intelligent environmental hubs for next-generation optical wireless networks.