Researchers developed an all-optical complex field imaging technique that captures both amplitude and phase information using intensity-based sensor arrays. This innovation simplifies the imaging process, reducing hardware footprint and energy consumption.
Researchers developed a new type of hologram, 'metahologram', that can project multiple high-fidelity images without crosstalk. This breakthrough enables next-generation technologies like virtual/augmented reality displays, information storage, and image encryption.
A team of scientists has created the world's strongest terahertz fields, achieving a peak intensity of 9 x 10¹³ W/cm². This breakthrough enables novel nonlinear terahertz-matter interactions and opens up new opportunities for studying plasmas and utilizing terahertz-driven forces.
Scientists have developed a method for achieving omnidirectional wavelength control, enabling simultaneous and multidirectional structural color tuning with highly flexible wavelength control. This breakthrough innovation promises to revolutionize tunable photonic applications, including electronic skin and optical sensing.
A team of scientists has reported a novel structure for developing high-performance crystalline white OLEDs by employing thermally activated delayed fluorescence (TADF) material and orange phosphorescent dopants. This approach enables controlled luminescence behavior, efficient charge carrier transport channels, and reduced device cond...
Researchers have developed a system for microtoroid optical resonators using far-field excitation, achieving ultra-high quality factors over 10^8. This enables compact and cost-effective biochemical sensing, surpassing tapered fiber-based couplers.
Researchers create cutting-edge all-optical single-shot probing technique to capture target dynamics from cold solid to overdense plasma. The new method provides unprecedented insight into interplay of fundamental processes such as ionization dynamics and plasma hydrodynamic expansion.
Researchers have developed a method that enhances efficiency and speed of nonlinear optical signal processing (NOSP) using parity-time symmetry. This approach enables high-speed data processing exceeding 38 gigabits per second, reducing power consumption and increasing network capacity.
Researchers have introduced a new form of quantum entanglement in the frequency domain, enabling double resolution in two-photon interference. This advancement sets the stage for future applications in quantum information processing and technologies.
Scientists have developed strong-field photoelectron holography to visualize electron dynamics within molecules, revealing details of internuclear separation and atomic behavior.
A new paper demonstrates a low-loss and polarization-independent integrated optical colorless ROADM with a 32 x 4 optical switch. The device boasts below 2 dB fiber-to-fiber loss at 1550 nm, making it suitable for applications such as optical neural networks and integrated quantum photonics.
Researchers developed a novel technique to visualize meningeal lymphatic vessels in vivo using photoacoustic microscopy. The study revealed that these vessels play a crucial role in regulating cerebrospinal fluid circulation and clearing metabolic waste from the brain, which is impaired in early stages of Alzheimer's disease.
Researchers have demonstrated a novel approach to actively manipulate light using ferroionic 2D materials. These devices exhibit exceptional modulation efficiency and low optical losses, enabling applications in telecommunications, neuromorphic computing, and beyond.
Scientists have introduced a groundbreaking form of quantum entanglement, enabling double resolution in two-photon interference. This innovation uses a frequency beam splitter to alter individual photons' frequencies with high success rates.
Researchers have achieved a significant breakthrough in surface-emitting semiconductor laser efficiency using multi-junction cascaded active area technology. The new design strategy increases gain volume, enhancing differential quantum efficiency and maintaining lower threshold current.
Researchers achieve tunable ultrafast laser state active controlling by utilizing anisotropic quasi-1D material Ta2PdS6. The material enables the sustainment of two distinct laser states: conventional soliton (CS) and noise-like pulse (NLP). Numerical simulation reveals the mechanism behind the switchable laser state.
A team of scientists has achieved a breakthrough in measuring the 3D density profile of laser wakefield accelerated electron bunches, revealing a transverse size of less than 30 micrometers and a peak current exceeding 1 kiloampere. This detection opens new avenues for future applications in accelerator science and beyond.
A novel photonic computing architecture has been developed for tens-of-task lifelong learning, surpassing existing electronic neural networks in capacity and energy efficiency. The L2 ONN demonstrates extraordinary learning capability on challenging tasks, such as vision classification and medical diagnosis.
Scientists developed Te-based THz modulators with improved modulation depth and speed, overcoming the tradeoff between the two. The stacking order of materials significantly impacts the modulation property, which can be regulated through substrate engineering.
A team of scientists developed a photonic scheme to extract key features from broadband RF signals, reducing data rate by 4 times while maintaining high target recognition accuracy. The system achieves 97.5% accuracy and outperforms one-dimensional feature extraction.
A new type of optical neural network has been developed, exhibiting a quantum speedup similar to quantum neural networks. The network uses classical optical correlations as a carrier of information, allowing for efficient processing and convergence speed.
Researchers observe superfluorescence effect for the first time and control collective state of dipole ensemble using new regulatory dimension. They demonstrate cooperative exciton-polariton condensation with enhanced coupling strength, enabling potential applications for ultra-narrow tunable lasers and optoelectronic devices.
Researchers discover finite barrier bound states (FBICs) in photonic crystals, exhibiting non-radiating properties and complete localization of boundary modes within few lattice sites. This breakthrough offers a novel approach to achieving BICs and fine control of boundary modes.
Scientists create a multispectral platform using tunable optical cavities with vanadium dioxide, enabling fast response speed and reversible manipulation. The platform achieves broadband color-changing capacity in the visible region and drastic amplitude tunability in infrared to microwave regions.
Researchers have developed a novel method for controlling light polarization using liquid crystals, allowing for dynamic manipulation of holographic images. This breakthrough has the potential to revolutionize various fields, including augmented reality, data storage, and encryption.
Researchers propose a scalable parallel scheme for ultrafast random bit generation using a single micro-ring resonator, enabling hundreds of independent and unbiased streams. The method reaches a 320 Gb/s generation rate per channel, with potential for further enhancement.
Recent research on direct laser writing (DLW) on halide perovskites reveals six interaction mechanisms between laser and perovskite. The technique's great potential for various applications is attributed to the flexibility of laser parameters and perovskite properties.
Researchers have developed a new approach to induce chiral response in non-Hermitian systems by exploring open evolution trajectories. Chiral conversion between localized modes is demonstrated, enabling high-efficiency transmission and relaxation of fabrication requirements.
A new excitation method called transient stimulated Raman scattering (TSRS) has been developed to achieve natural-linewidth-limit spectral lines with sub-mM sensitivity. TSRS uses broadband femtosecond laser pulse trains to manipulate vibrational wave packets in the time domain, enabling high-density Raman probes and barcode imaging.
A new holographic camera using a liquid lens and end-to-end physical model-driven network can capture high-quality holograms of real 3D scenes in 150 milliseconds. The camera solves two major bottlenecks of existing holographic technology, enabling fast acquisition and improved image quality.
A new Raman spectral preprocessing algorithm enhances biomedical applications by improving noise removal and baseline correction. The two-step strategy, RSPSSL, uses self-supervised learning to achieve high-fidelity denoising and visualization of clinical tissue samples.
Scientists develop innovative approach for hyper-spectral resolution and high-speed spectral acquisition using amplified femtosecond-pulse bursts. The technique offers high spectral resolution and motion-free scanning, promising applications in gas sensing, chemical analysis, and molecular dynamics tracking.
A team of scientists has created a highly flexible, uniformly luminescent photochromic fiber that can achieve uniform light emission and wide color gamut control. The fiber is designed to be mass-producible and integrated into various wearable interactive interfaces, enabling diversified interactions such as emotion and communication.
A new perovskite single-pixel detector efficiently extracts dual-color metasurface images in complex environments, leveraging wavelength-selective properties and high detection sensitivity. The system streamlines image extraction with no need for additional filters, reducing cost and time.
Researchers have successfully generated a stable high-intensity and high-repetition supercontinuum white light source in air using femtosecond laser filamentation with an external DC electric field. This method suppresses thermal jitter by generating an ionic wind, improving beam pointing stability and signal-to-noise ratio.
A team of scientists proposed a general deep learning framework based on DQN algorithm to efficiently design wavelength-selective thermal emitters (WS-TEs) with excellent performance for different applications. The framework autonomously selects materials and optimizes structural parameters for optimal emissivity spectra.
A new method combines a tri-channel chiral metasurface with a deep convolutional neural network to analyze polarizations, achieving fast, robust, and accurate measurements. This approach supports high spatial resolution requirements and compact design, enabling diverse applications in remote sensing, astronomy, biology, and microscopy.
Zero-index metamaterials (ZIMs) exhibit uniform electromagnetic field distribution over arbitrary shapes, enabling ultra-compact cloaking devices and arbitrarily shaped waveguides. Researchers have developed a highly homogeneous ZIM using high-permittivity materials, reducing its physical dimensions by threefold.
The study successfully manipulates distinct exciton species within a hybrid monolayer WSe2-Ag nanowire structure, exhibiting high coupling efficiency with surface plasmon polaritons. This breakthrough enables precise control over light emissions and paves the way for advanced optical and quantum applications.
Scientists have developed a method to construct high-dimensional quantum gates using diffractive neural networks, exhibiting ultrahigh fidelities. They successfully implemented various quantum gates and demonstrated the applicability of their approach by performing complex operations like the Deutsch algorithm.
Researchers developed submonolayer biolasers on optical fibers with ultrahigh Q-factors, achieving a six-order-of-magnitude improvement in lower limit of detection compared to monolayer biolasers. The sensors showed potential for high-throughput clinical diagnosis and cost-effective early disease detection.
A team of scientists has created a new optical neural network architecture that uses orbital angular momentum to learn data features of images, achieving high-precision intelligent encoding and decoding. This method has been tested with success in various tasks, including image classification and secure free-space transmission.
Researchers developed a physical image denoiser using diffractive layers to process noisy input images at the speed of light, preserving desired spatial features with minimal distortions. The all-optical approach offers ultra-high speed, compact size, and low power consumption, paving the way for various inverse problems in imaging and...
Researchers develop efficient TADF or RTP materials by regulating energy differences between triplet states, leading to controlled transitions of triplet excitons. By tuning conjugated structures and stacking modes, they achieve precise management of triplet excitons.
Researchers developed highly efficient photo split, near-infrared upconversion emission and suitable temperature sensing for thermal management in silicon-based solar cells by adjusting Er³⁺/Yb³⁺ doping concentrations in NaY(WO₄)₂ phosphor. An efficiency of up to 173% was achieved.
Researchers at Light Publishing Center created a thin disk oscillator to generate 100-W high-power optical vortex beam. The technique uses transverse mode competition and control to achieve high power output, enabling efficient material processing and exploring new parameter space associated with structured light.
A team of scientists developed a method using Bessel beam illumination to measure the internal structure of seven-core fibers with high precision. The approach provides sharper fibre core patterns and higher image contrast compared to traditional methods.
Researchers developed a cholesteric phase liquid crystal polymer (CLCP) visual sensing platform utilizing geometric phase coding for real-time visual patterns. The system generates image-based sensing signals through distinct visual patterns, offering an intuitive alternative to conventional methods.
Researchers developed a new energy-efficient way to generate highly focused and finely controlled X-rays. The novel method uses electron waveshaping to produce X-rays with increased intensity and tunability.
Researchers studied electron tunneling via neighboring atoms in van der Waals complexes, revealing two capture effects and a new understanding of Coulomb interactions. This discovery has implications for quantum physics, nanoelectronics, and ultrafast optoelectronic devices.