A team of scientists developed a method to precisely control Dirac plasmon polaritons in two-dimensional materials, opening new possibilities for advanced nanophotonic technologies. By adjusting the spacing between coupled nanostructures, they increased the polariton wavevector by up to 20% and extended the attenuation length by more t...
Researchers from UNamur, Harvard, and MTU developed a photonic chip that achieves longer entanglement range using near-zero refractive index photonics, a breakthrough for quantum computing. This technology has the potential to enable more efficient lasers, sensitive optical sensors, and faster ultra-secure telecommunication tools.
A new computational enhancement to structured illumination microscopy improves 3D imaging clarity and stability, addressing challenges of uniform illumination patterns in cells. Principal component analysis is used to uncover underlying order from complex signals, enabling more adaptive and robust reconstruction.
Researchers developed a photon-level dual-comb spectroscopy system, enabling high spectral resolution and long-term stability in turbulent conditions. The system successfully monitored atmospheric gases with unprecedented sensitivity, paving the way for next-generation optical sensing networks.
Researchers developed a graphene-based single-gate electro-optic metasurface that controls light direction using a single electrode, simplifying device structure while maintaining high optical efficiency. The metasurface achieved large beam switching angles and demonstrated scalability for next-generation programmable photonic systems.
Researchers developed a stable Chichibabin diradicaloid with high luminescence and photothermal conversion efficiency, enabling precise near-infrared imaging-guided tumor ablation. Its water-soluble nanoparticles showed excellent NIR imaging performance and achieved high photothermal conversion efficiency.
Researchers have developed a novel quantum light source based on topological bulk cavity, achieving high extraction efficiency and robust QD-cavity interaction. The system exploits a topological bulk state to enhance light emission from a semiconductor quantum dot, with a predicted high single-photon extraction efficiency of up to 92%.
A new strategy is used to enable efficient carrier injection, effective thermal management, and strong optical confinement in colloidal quantum dot films. This leads to population inversion, confirming the achievement of electrically pumped surface-emitting amplified spontaneous emission.
Researchers have developed a method to generate femtosecond polygonal optical vortices with square, pentagonal, and hexagonal intensity distributions. The technique utilizes a passive mode-locked solid-state Yb:KGW oscillator at quasi-frequency-degenerate state, delivering high-power FPOVs with excellent power stability.
Researchers have developed a hybrid Kerr-electro-optic frequency comb on thin-film lithium niobate, resolving limitations in traditional approaches. The device achieves both large spectral coverage and dense line spacing, capabilities that were difficult to realize simultaneously.
Researchers have discovered a way to arrange exotic light patterns into repeatable crystals that extend across space and time. The 'hopfion' lattices use structured beams at two different colors, enabling future systems for robust information processing in photonics.
A team of scientists developed a revolutionary SiC-based AR display platform that solves the challenges of lightweight design, full-color display, and mass production. The technology achieved excellent performance, including a high luminous efficiency and compact design with integrated vision correction.
A new study introduces a novel solution for precise control of light focus, enabling compact and robust tuning of optical fibers. The tunable Metafiber uses a 3D nanoprinted phase-only hologram to achieve remote focus control by adjusting relative power between guided modes.
AI-driven inverse lithography technology optimizes lithography modeling and mask optimization, improving resolution and overcoming computational bottlenecks. The integration of AI enables rapid synthesis of high-fidelity mask patterns, enhancing imaging quality and laying the foundation for large-scale industrial adoption.
Researchers demonstrate real-world integration of QKD and 110.8 Tbit/s classical coherent optical communication over multi-core fibers, reducing noise and achieving stable quantum key generation. This work enables scalable integration of QKD and classical communication in future multi-core fiber networks.
Researchers create topological exceptional points using on-chip all-dielectric metasurfaces, eliminating Ohmic losses and suppressing zero-order diffraction background. The platform enables precise control of topological phases and polarization decoupling for next-generation wearable AR devices and advanced optical display technologies.
Researchers have sculpted photon spin into a three-dimensional toron, a knot-like structure that combines point-defect monopoles with swirling skyrmion tubes. This breakthrough enables the creation of robust optical circuits that could carry more data than current fiber links.
Researchers developed a scalable versatile integrated photonic chip to handle static and dynamic temporal tasks, achieving high efficiency in processing various neural network models like CNN, FCNN, and PGRNN. The chip leverages multi-wavelength channels and dual-input-port structures for flexible all-optical processing.
Researchers have developed a novel label-free multiphoton photoacoustic microscope to detect endogenous NAD(P)H in brain cells, achieving remarkable imaging depths of up to 1100 μm. This technology enables real-time monitoring of metabolic dynamics in brain cells, offering new insights into neurodevelopment and disease mechanisms.
The research team developed an analytical model using lattice networks to understand the mechanism of twisted photonic crystals, allowing for efficient light beam control and concentration. The device has potential applications in tracking satellites, improving lasers, quantum computing, optical memories, and enhancing photocatalysis.
The innovative design eliminates optical path difference-induced errors, enabling simultaneous 3D measurement within a compact module. The technology boasts 0.25 nm resolution and outstanding linearity, making it a promising candidate for future semiconductor fabrication and atomic-scale production.
Researchers develop quantum correlation-enhanced dual-comb spectroscopy to detect molecular signals below quantum noise limits. The technique achieves a 2.6x increase in measurement speed and high-resolution spectra, opening new frontiers in ultrasensitive molecular detection.
Researchers found that Brillouin scattering processes in few-mode fibers are fundamentally different from single-mode regime, with higher ultrasound frequencies and lifted symmetry restrictions. This opens a new engineering playground for better laser sources and sensor systems.
Researchers have developed a novel radio-photovoltaic cell design that achieves high power output and exceptional long-term stability. The innovative WLC structure realizes a 3-fold improvement in energy conversion efficiency, making it suitable for nuclear battery applications.
Researchers propose a passive quantum compressed sensing-based single-photon dynamic imaging technique for long-distance drone detection. The method improves imaging sensitivity and robustness against noise, enabling frequency-domain sparse signal reconstruction based on discrete photon detection events.
Researchers predict and experimentally demonstrate novel intrinsic HOTIs in homogeneous photonic metamaterials, with hinge states protected by higher-dimensional topological invariant. The discovery provides deeper insights into the interplay between geometry-induced gauge fields and topological invariants.
A new method called ISM-FLUX streamlines MINFLUX by using a 5x5 SPAD array detector to capture spatiotemporal information from fluorescence photons, allowing for precise localization over larger areas without losing accuracy. This innovation enables faster and more user-friendly molecular-scale imaging in biology.
Researchers developed an indirect photopatterning approach to create micrometer-scale RGB pixel patterns in single phase network structure, enabling high resolution full-color OLEDs with over 3000 ppi. This method avoids destructive factors and can be conducted using conventional photolithography setups.
A new phosphor-free LED lamp rich in yellow-green spectrum was developed to study its photo-biological effects on human health. The findings show significant enhancements in visual performance and circadian rhythm under illumination from this lamp, revealing the unique benefits of yellow-green spectrum.
The team created a broadband, polarization-insensitive unidirectional imager that operates in the visible spectrum and suppresses image formation in the reverse direction. The device incorporates diffractive structures fabricated through wafer-scale lithography on high-purity fused silica.
Researchers have developed bipolar-barrier tunnel heterostructures for high-sensitivity mid-infrared photodetection. The design suppresses majority carriers and facilitates efficient tunneling of photogenerated carriers, achieving outstanding room-temperature specific detectivity.
Researchers create novel method to control ghost hyperbolic phonon polaritons by launching waves with specially shaped gold nano-antennas, extending travel distance from 20 micrometers to 80 micrometers. This breakthrough enables new technologies such as efficient heat management and reliable quantum information systems.
Researchers discovered topological properties persist in quasi-periodically modulated optical lattices, governed by Fibonacci numbers. The team proposed approximating true quasi-periodic lattices with periodic sequences, leading to the discovery of Fibonacci-derived Chern numbers that dictate beam transport velocity.
Scientists create a spatiotemporal light system that emulates the behavior of potential-free Schrödinger equations, generating localized wavepackets without potential energy constraints. This breakthrough could provide new insights into quantum physics and applications in studying light-matter interactions.
Optical vortices have been found to contain a complete skyrmionic texture when Maxwell's longitudinal field is retained. This discovery opens up new possibilities for high-dimensional OAM communication and topologically protected routing in planar photonics.
A team of scientists has successfully demonstrated a more practical and robust method for quantum key distribution, which could lead to secure and cost-effective communication networks worldwide. The breakthrough uses composable security and achieves a secure key rate using simple telecom hardware combined with digital postprocessing.
A new microscopy technique, Confocal² Spinning-Disk Image Scanning Microscopy (C²SD-ISM), has been developed to overcome limitations of existing super-resolution techniques in deep tissue environments. The system achieves high-fidelity super-resolution with a lateral resolution of 144 nm and performs 3D imaging over large volumes.
Researchers have successfully demonstrated soliton microcombs in X-cut LiNbO3 microresonators, overcoming the challenge of Raman nonlinearity. This breakthrough enables the monolithic integration of fast-tunable, self-referenced microcombs for applications in optical communication, computation, timing, and spectroscopy.
Researchers developed misaligned bilayer metagratings to overcome intrinsic dispersion locking, enabling precise angular and wavelength control. This breakthrough offers new opportunities for compact optical imaging and computing technologies.
The Uncertainty-Aware Fourier Ptychography (UA-FP) framework offers a highly robust and flexible solution for computational imaging, overcoming traditional calibration constraints. It can maintain reliable performance even when confronted with substantial physical imperfections, setting a new standard for the field.
Researchers introduce a novel method for generating topological optical textures using simple photonic crystal slabs, leveraging BICs to achieve alignment-free and high-fidelity topological light generation. This discovery paves the way for practical applications in communication, sensing, and data processing.
Operando ZnO recrystallization improves device performance by reducing carrier concentration and enhancing electron mobility, leading to increased EQE in red QLEDs. This process also suppresses exciton quenching within the quantum dot layer.
A custom CNN trained on synthetic datasets decomposes modes in multimode fiber, eliminating coherent detection. This approach achieves high frame rates and low power consumption with FPGA acceleration.
Researchers developed a novel platform addressing limitations of conventional plasmonic systems, enabling large-area high-brightness emission at low power. The breakthrough paves the way for future display and optical communication technologies.
Researchers developed a new method to estimate PN junction depth in Si wafers with nanometer scale resolution, using terahertz emission spectroscopy. This technology enables rapid, non-destructive, and non-contact access to the interior of wafers, contributing to improving device reliability and reducing manufacturing resources.
The UCLA team introduces a framework for arbitrary 3D point spread function engineering, enabling adaptive optical imaging systems with precise control of light distribution in three dimensions. This development has significant implications for advanced imaging modalities, such as snapshot 3D multispectral imaging.
The study reveals that manganese exists in a divalent (+2) state in the YAG structure, emitting near-infrared light. The fluorescence lifetime of the red emission is shorter than the NIR emission, suggesting distinct lattice site occupation.
Researchers demonstrate a novel system for neuromorphic computing utilizing perovskite microcavity exciton polaritons operating at room temperature. The system achieves high-speed digit recognition with 92% accuracy using only single-step training, opening new opportunities for scalable and light-driven neural hardware.
A team of scientists proposes an integrated form-position deflectometric system for measuring monolithic multi-freeform optical elements using Bayesian multisensor fusion. The approach achieves high accuracy and determinacy, enabling hundreds of nanometers measurement accuracy for surface forms.
Researchers have developed a novel approach to achieve high-speed data transmission over long distances using platicon frequency microcombs. The technology demonstrates stable terabit/s coherent optical communication in free-space links, overcoming previous challenges such as beam stabilization and phase recovery. This breakthrough sup...