A team of scientists developed a color liquid crystal grating based 3D display system with a large viewing angle, eliminating chromatic aberration. The proposed system enables vivid reconstruction of 3D color objects without limitations.
A team of scientists introduced a novel method to map local quality at super-resolution scale, enabling unparalleled resolution mapping and accurate error estimation. The technique, PANEL, was applied to various imaging approaches and showed improved SR image quality.
A new NIL Metalens array enables the creation of next-generation true-3D near-eye displays with high resolution and wide field of view. The metalens array combines a commercial micro-display and achieves a see-through effect for augmented reality applications.
A new system-on-chip employs silicon photonics to process broadband information, reducing latency through direct analogue processing. The device successfully tested in two dynamic interference scenarios, demonstrating error-free operation and maintaining signal-to-noise ratios over 15 dB.
Researchers demonstrate a new method to synthesize complex-frequency waves (CFW) to amplify molecular signals in graphene-based surface-enhanced infrared absorption (SEIRA). This approach increases the sensitivity of traditional SEIRA technologies, enabling the detection of trace molecules currently undetectable. CFWs enhance molecular...
Researchers have developed a new approach to creating liquid-crystal phase modulators that are polarization-independent and can achieve large phase depths. The devices use a light-controlled azimuth angle (LCAA) process to create multi-microdomain, orthogonally twisted structures with precise alignment.
Researchers have developed a low-cost and user-friendly technique called UV-LED-based microscope projection photolithography (MPP) for rapid high-resolution manufacturing of optical elements. This approach can fabricate features down to 85 nm, comparable to expensive methods like multi-photon and electron beam lithography.
Researchers reviewed various deep learning methods for phase recovery, highlighting their potential and limitations. They suggest combining physical models with deep neural networks for improved results.
Researchers developed a method to measure enhanced light interaction at the nanoscale using single molecules as probes, achieving a 30-fold enhancement in radiative decay rates. This breakthrough provides precise control of bright single-photon emission sources and deepens understanding of nanophotonic interactions.
A team of scientists has developed a new approach to form gold nanoparticles in tellurite glasses, enabling precise control over their formation and plasmonic properties. This innovation has potential for real-world impact in exciting photonics research and applications.
Waveguide combiners enable lightweight, high-performance augmented reality displays with expanded field of views. Designing waveguide combiner technology poses several challenges, including optimizing optical performance, manufacturability, and cost.
Researchers developed an innovative reflective display method using electro-microfluidic assembly of particles, enabling multicolored displays with high reversibility and viewing angles. The technique offers advantages in fabrication, response speed, and color performance, making it a promising candidate for green display technology.
Researchers developed an all-inorganic nano-heterostructure luminant with enhanced sensitivity, stability, and efficiency, paving the way for multifunctional optical control devices. The 0D/2D configuration enables polarized blue fluorescence and multifunctional capabilities.
Researchers develop pH-responsive helical hydrogel microswimmers that can traverse complex terrains and deliver drugs to targeted cells. The microswimmers change shape in response to environmental pH levels, enabling adaptive locomotion.
Researchers have developed a new approach to polarization-independent liquid-crystal phase modulation using a light-controlled azimuth angle (LCAA) process. This process creates single-layer, multi-microdomain, orthogonally twisted structures with precise alignment, enabling high phase retardation and low polarization dependence.
A team of scientists has developed new packaging technologies using TPL to address the challenges of photonic integrated circuits (PICs). The technology offers several unique advantages, including high-resolution 3D structures and customizable connections, which relax the alignment tolerance during PIC assembly.
Scientists have developed a low-cost and user-friendly technique called UV-LED-based microscope projection photolithography (MPP) for rapid high-resolution manufacturing of optical elements. MPP can fabricate microfluidic devices, biosensors, and other optical devices with feature sizes down to 85 nm.
Vectorial adaptive optics (V-AO) corrects both polarization and phase aberrations, improving optical resolution and accuracy. The new technique is poised to revolutionize the optics community with its potential in enhancing system performance and enabling new applications.
Researchers at Khalifa University have developed state-of-the-art contact lenses that respond to both UV light and temperature changes. These smart lenses, incorporating photochromic and thermochromic powders, can block up to 45% of UV radiation and filter out blue light.
A team of researchers has developed a fast method to track surface location and adjust optical focus simultaneously without mechanical movement. The dynamic z-scanning technique reduces defocused laser pulses and increases processing speed when processing non-flat or changing samples.
The E2E-BPF microscope overcomes traditional microscopes' limitations by extending depth-of-field using a learning-based binary phase filter and image deconvolution. This enables high-resolution imaging over larger spatial scales, reducing the need for refocusing.
Researchers developed CRISPR-powered optothermal nanotweezers (CRONT) that can trap and enrich bio-nanoparticles, including gold nanoparticles and DNA molecules. The technique achieves single molecule level SNP detection with ultra-low detection volume, making it suitable for point-of-care diagnosis and biophotonics.
A new type of luminescent diradical has been created, showing high photoluminescence and photo-stability. The material demonstrates significant single-molecule magnetoluminescence properties, achieving a giant ML value of 210% at a magnetic field of 7 T.
A new machine learning-based adaptive optics method, MLAO, enhances microscopy imaging by requiring fewer sample exposures and coping with high noise levels, random sample motions, and blinking events. The approach provides physical insights into the imaging process, enabling better understanding of aberrations and internal workings.
Researchers develop a passive approach to night-time warming by harnessing energy from the atmosphere, reducing reliance on electric heaters and lowering energy consumption. The new strategy achieves significant temperature increases and annual electricity savings of over 300 kWh m-2 in various climate zones.
Researchers developed an AI model analyzing 3D label-free changes in immune cell structure during healthy conditions, sepsis diagnosis, and recovery. Significant morphological changes were identified, suggesting CD8+ T-cell structures as a valuable complement to traditional diagnostic tools.
A team of scientists has developed a single-molecular Raman switch that can be controlled using both electrically driven conformational switching and optical inputs. The study demonstrates the use of near-field-enhanced techniques to manipulate molecular states, enabling highly accurate methods for nano-scale systems.
Researchers develop a new type of light guide plate using perovskite nanocomposites, achieving high transparency and improved performance in liquid crystal displays. The uniform distribution of nanoparticles is critical to the properties of the nanocomposites, enabling efficient light guidance.
Researchers develop optical PUF with random wrinkles structure, generating unique digital values difficult to predict. This technology has potential beyond authentication systems, including anti-counterfeiting and data storage technologies.
Researchers develop complete theoretical model for Fringe Projection Profilometry (FPP) to evaluate its measurement precision. The new models provide a generic noise chain and transfer models, achieving accurate results in various regions of the camera.
Recent review highlights research progress on spatiotemporal mode-locking (STML) and dissipative solitons (STDSs) in multimode fiber (MMF) lasers, outlining breakthrough perspectives for STML. Achieving ultrahigh pulse energy and arbitrary mode profiles is crucial, enabling diverse applications such as nonlinear microscopy.
Researchers have developed a roll-to-roll polymer film for improved radiative cooling by arranging 3D trench-like structures within the thin layer of the polymer film. The novel technique achieves high cooling performance with low energy input, making it suitable for large-scale thermal management applications.
Researchers developed a new type of laser using Dirac-vortex photonic crystal lasers on silicon, offering high performance and robustness. The discovery paves the way for next-generation silicon-based photonic integrated circuits.
Researchers developed a new garnet material with enhanced quantum efficiency and thermal stability, using chemical unit cosubstitution. The material shows promising applications in bio-tissue imaging, night-vision, and information encryption.
A new technique using chaotic laser and quadratic correlation algorithm improves spatial resolution of traditional sensors, enabling centimeter-level detection at 1.5 km distance. The approach optimizes signal-to-noise ratio and resolves the pulse width limitation.
Researchers successfully extend lasing beyond the fluorescence spectrum of Yb-doped La2CaB10O19 crystal through phonon engineering. Theoretical calculations predict a broadband emission spectrum with increased phonon numbers, demonstrating potential for self-frequency doubling and various applications.
Researchers have created deterministic potential wells to trap and manipulate exciton polaritons in WS2 monolayers at room temperature. This enables the achievement of strong nonlinearity while maintaining thermal stability, paving the way for integrated polariton-based devices.
A new deep learning approach called Self-Net improves volumetric fluorescence microscopy's 3D resolution isotropy, enhancing image quality and enabling accurate analysis of complex biological structures. This method enables fast training and inference speed, promoting discoveries in life sciences.
Researchers have developed an ultracompact, high-speed, and energy-efficient electro-optic modulator using topological interface states in a 1D microstructure lattice. The device features a large modulation bandwidth of 104 GHz and low power consumption of 5.4 fJ/bit.
Researchers have observed simultaneous oscillations of spin and orbital angular momentum in weak and strong coupling regimes, driven by optically synthesized magnetic fields. The findings offer a general framework to explore spin-orbit couplings in higher-order regime.
Recent studies have made progress in developing blue PeLED devices, with techniques including compositional engineering, dimensional control, and size confinement. The goal is to increase efficiency and stability, overcoming the current limitations of 10% efficiency and insufficient stability. By exploring these technical routes, scien...
Researchers developed a novel WGM microprobe to enhance Raman signals by combining surface-enhanced Raman spectroscopy (SERS) and whispering-gallery-mode (WGM) microresonators. The platform enables 2D hyperspectral imaging with signal enhancement, opening opportunities for material analysis and chemical imaging.
High-throughput terahertz imaging has made significant progress, enabling real-time imaging applications. Computational methods such as digital holography, spatial encoding, and diffractive processing have improved image resolution and capabilities.
Researchers have developed a new technique for manufacturing 3D microlens arrays using holographic fs-laser processing-assisted wet-etching technology. This method offers high precision, efficiency, and versatility, enabling the fabrication of complex 3D patterns with high fidelity.
Researchers developed a simple, one-step method for creating large-area liquid crystal microlens arrays (LC-MLAs) with high focusing quality. The LC-MLAs demonstrate polarization-dependent, electrically tunable properties, allowing for adjustable focal length and image depth control.
Researchers have developed high-speed and high-responsivity photodetectors on a thin-film lithium niobate platform, achieving a 3-dB bandwidth of 110 GHz and responsivity of 0.4 A/W at 1550-nm wavelength. The devices demonstrate potential for ultra-high-speed optical communications and multi-function integrated quantum photonics.
A new holographic 3D display system has been developed with a wider viewing angle of 73.4°, significantly improving over previously proposed systems. The system uses SLMs and liquid crystal grating to achieve this improvement.
A new laser-based process chain has been developed to fabricate fused silica optics with high laser-induced damage thresholds, overcoming conventional manufacturing limitations. The process uses CO2 lasers for uniform layer-by-layer surface removal, precisely eliminating subsurface mechanical damage and surface/subsurface contamination.
Researchers review recent progress in hybrid integration of 2D materials for integrated optics platforms, highlighting key steps and challenges. Highly nonlinear materials like graphene and TMDs show promising results with increased effective nonlinear performance.
A new methodology for QPI of objects covered by random unknown phase diffusers uses diffractive optical networks and deep learning. The system axially spans ~70λ and performs all-optical phase recovery and quantitative imaging with high image quality and low power consumption.