Hybrid Diamond Chip Enhances Light-Qubit Interaction

Researchers have developed and demonstrated a GaP-on-diamond hybrid nanophotonic platform enabling controllable interaction between photons and silicon-vacancy (SiV) centers in diamond. Using stamp transfer, the team fabricated more than 600 nanophotonic cavities on a diamond substrate with a yield of 99.5%, achieving cooperativity above 1 and a spin relaxation time exceeding 0.4 ms, enabling single-shot readout of SiV electron spins. Next steps include connecting multiple devices on the same chip and demonstrating entanglement.

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New paper online: Lattice light sheet activation structured illumination super-resolution microscopy. https://www.nature.com/articles/s41566-026-02019-6

Nature Photonics@NaturePhotonicsOptics industryAI score5151

Nature Photonics has published the open-access paper "Endlessly self-injection-locked photonic integrated lasers" online. The post provides only the paper title and link https://www.nature.com/articles/s41566-026-01985-1, with no specific results described.

Strong Coupling Between Light and Traveling Sound Waves Achieved in Optical Fiber for the First Time

Researchers have observed strong coupling between light waves and traveling sound waves in optical fiber for the first time, opening up a new platform for optoacoustic signal processing.

Infrared Locking Method Tackles Mirror Coating Challenge for Gravitational-Wave Detectors

Researchers have developed and tested a new infrared optical locking method that could support mirror coating schemes in gravitational-wave detector upgrades.

European XFEL Sets Intensity Record for Attosecond Hard X-Ray Pulses

Researchers used European XFEL to generate extremely short attosecond hard X-ray pulses with record intensity, suitable for studying electrons in atoms and molecules.

Sliding Metasurface Achieves Frequency Filtering and Beam Steering in a Single Device

A review article in Light: Science & Applications presents the sliding metasurface developed by H. Shi, W. Zhu, G. Hu and colleagues. Relative lateral displacement between two complementary metasurface layers generates an effective phase gradient, enabling passive beam steering while retaining frequency-selective filtering. The authors argue that this geometry-driven passive approach is simpler and more scalable than tunable metasurfaces dependent on active components, and could be extended to the terahertz and optical bands.

Laser Pulses Bring Order to Tiny Electrical Domains in Quantum Material

Researchers used laser pulses to align tiny electrical regions (domains) in a quantum material, demonstrating light's ability to control electrical order in materials. The work was reported by Phys.org on October 15, 2026.

Gallium Phosphide–Diamond Hybrid Platform Enhances Quantum Light–Matter Interaction

Researchers integrated gallium phosphide (GaP) nanophotonic cavities onto diamond substrates via a stamp-transfer process, enhancing quantum optical interactions with diamond color centers. The devices were first fabricated in a GaP thin film on a carrier using electron-beam lithography, screened spectroscopically, and then transferred; the experiments achieved cooperativity greater than 1. The platform could serve as a light–matter interface in quantum networks.

Dynamic Scattering Method Suppresses Speckle Noise and Aberrations in OCT Imaging

Researchers have proposed using dynamic scattering to control speckle noise and aberrations in optical coherence tomography (OCT). Speckle arises from spatially coherent light; removing coherence eliminates speckle but also sacrifices interferometric imaging capabilities such as OCT. The method strikes a balance between the two to improve detail in high-resolution imaging.

Optogenetic Therapy Partially Restores Vision in Early Clinical Study

Optics & Photonics News reports that an early clinical study showed optogenetic therapy can partially restore vision in patients with severe vision loss. Most adverse events were mild to moderate, with only one transient severe event after injection that resolved within minutes. First author José-Alain Sahel of the University of Pittsburgh said the results show that the visual system retains the ability to process new information even in people with severe blindness.

Nature Photonics: Chiral Perovskite Multiple Quantum Wells Extend Spin Lifetime via Spin Cascade

A paper in Nature Photonics reports that chiral perovskite multiple quantum well structures extend spin lifetime through an efficient spin cascade process, offering new material options for chiral optoelectronic and spintronic devices.

Chip-Scale Brillouin Laser Gyroscope Achieves Ultra-High Sensitivity

Researchers have developed an integrated Brillouin laser ring gyroscope capable of measuring rotation rates as low as 37 degrees per hour.

University of Colorado Develops Invisible Tattoo Ink Revealed Only Under Light

A team at the University of Colorado Boulder has designed a series of multicolor tattoo inks whose color can be switched on or off under different wavelengths of light. The results were published in Matter, a Cell Press journal.

Chip-Scale Optical Ring Laser Gyroscope Detects Slow Rotation of 37 Degrees per Hour

A team from UCSB and Caltech has published an account in Optics Letters of a chip-scale optical ring laser gyroscope capable of measuring rotations as slow as 37 degrees per hour, approaching Earth's rotation rate of 15 degrees per hour. The device is based on a low-noise Brillouin laser built on a silicon nitride waveguide photonic integrated circuit, can be fabricated with standard CMOS processes, and requires only milliwatt-level optical power. Its sensitivity is nearly 2,000 times better than the team's earlier device.

Quantum Network Test Verifies Entanglement Without Trusting Detectors

Researchers built a fully connected four-user quantum network, distributing time-bin entangled photon pairs over six links using a broadband integrated lithium niobate photon source. By using the polarization of the same photons as trusted quantum inputs, they were able to verify and quantify entanglement without trusting the measurement devices.

Ultrashort Laser Pulses Offer New Way to Probe Electronic Quantum Geometry

Researchers at the University of Jena and the University of Regensburg have used ultrashort laser pulses and nonlinear optical methods to probe the quantum geometric properties of electrons in solids.

Optical Skyrmions Can Steer the Motion of Magnetic Skyrmions

Researchers constructed optical skyrmions using two orthogonally polarized Laguerre-Gaussian beams and showed that they can control the motion of magnetic skyrmions in magnetic materials, harnessing the orbital and spin angular momentum of structured light to manipulate magnetic structures.

Computational Model Guides Lighting Design to Improve Color Discrimination in Older Adults

Researchers have developed a computational model that accounts for age-related changes in the eye, enabling white-light spectrum design that helps older adults distinguish colors better while maintaining conventional white-light characteristics.

AIOFM Uses Multi-Source Satellite Remote Sensing to Reveal Diurnal Aerosol Variation Inland and Along the Coast of Pakistan

The remote sensing information characterization research team at AIOFM combined EPIC and MODIS satellite observations, ERA5 reanalysis, and AERONET ground-based data from 2015 to 2025 to analyze the diurnal variation of aerosol optical depth in Quetta and Karachi, Pakistan. The results were published in Remote Sensing. In representative scenarios, aerosol optical depth in Quetta increased by 0.159 in the afternoon compared with the morning, and by 0.066 in Karachi. The study provides a multi-source remote sensing analysis method for monitoring diurnal aerosol variation in regions with sparse ground observations.

Optica: New Model Makes Lighting Design Better Suited to Aging Eyes

Researchers have developed a model that accounts for age-related changes in color vision and simulates different lighting configurations to improve color perception for older adults. The results were published by Optica on October 13, 2026.

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New article online: Dangling-bond-free, chemically anisotropic semiconductors for ultrahigh-resolution X-ray imaging. https://www.nature.com/articles/s41566-026-02013-y

Self-Aligned Dual-Pump Scheme Opens New Path for Optical Frequency Combs

Scientists in the US and New Zealand have demonstrated a new type of frequency comb based on a dual-pump laser. Using a self-alignment mechanism, the approach could help move frequency comb technology from a niche to broader applications. Miro Erkintalo of the University of Auckland took part in the research.

Nature Photonics: Decoupling Between C60 Molecules Suppresses Interface Recombination in Perovskite Solar Cells

A paper published online in Nature Photonics on October 13 reports that researchers decouple C60 molecules through vapor-phase molecular passivation, thereby suppressing interface recombination in perovskite solar cells.

Nature Photonics: Nonlinear Circular Dichroism Reveals Local Berry Curvature in Crystals

A paper published online in Nature Photonics on October 13 finds that nonlinear high-harmonic circular dichroism can be used to reveal local Berry curvature in crystals with broken time-reversal symmetry.

Topology-Optimized Dielectric Cavities Enhance Exciton Emission in Tungsten Diselenide

A paper in Light: Science & Applications uses topology optimization to design dielectric nanocavities that enhance exciton emission from monolayer WSe2, offering stronger and customizable light-matter interaction for on-chip quantum optics, nonlinear optics and low-threshold lasers.

NC State Uses Laser-Plasma Lightsaber as Tunable Radio Antenna

Researchers at North Carolina State University have used a laser to generate a tunable plasma beam resembling a lightsaber, which can serve as a radio antenna and change its size and direction for flexible radio systems.

Nature Photonics: Solid-State Emissive Acceptors Create Thermally Accessible Radiative Channels for Organic Solar Cells

A paper published online in Nature Photonics on October 12 reports that solid-state emissive guest acceptors create thermally accessible radiative channels in organic solar cells, boosting device efficiency.

Nature Photonics: Faster Exciton Utilization Enables Stable Deep-Blue OLEDs with Reduced Efficiency Roll-Off

A paper published online in Nature Photonics on October 12 describes deep-blue organic light-emitting diodes using phosphorescence-assisted TADF-sensitized fluorescence to speed up exciton utilization, improving stability and reducing efficiency roll-off.

Xi'an Institute of Optics and Mechanics Research on Near-Infrared Optogenetic Pain Relief Draws Attention in Nature Photonics Commentary

A team led by Researcher Wang Quan at the Biomedical Spectroscopy Laboratory of the Xi'an Institute of Optics and Mechanics, Chinese Academy of Sciences, has achieved wireless near-infrared optogenetic pain relief using upconversion nanoparticles. The research was recently highlighted in a dedicated commentary in Nature Photonics. Optogenetics received the Nobel Prize in Physiology or Medicine on October 5, 2026.

Quantum Chip Can Store Multiple Photons Simultaneously, Paving the Way for Scalable Quantum Memory

A paper in Nano Letters reports a quantum chip capable of holding multiple photons at once, offering a new path toward scalable quantum memory for fragile quantum information systems.

Superconducting Circuits Link Small Photon Clusters into Larger Entangled States

Researchers used superconducting circuits to fuse smaller photonic graph states into larger entangled states, offering a new approach to the large-scale entanglement resources needed for quantum computing.

Australian Team Achieves All-Optical Control of Metasurface Functions

Ziwei Yang and colleagues at the ARC Centre for Transformative Meta-Optical Systems at the Australian National University demonstrated a method of controlling nonlinear optical metasurface functions with light, breaking from the traditional situation where nonlinear metasurface functions are fixed after fabrication.

Nature Photonics: High-Entropy Molecular Contacts Enable Efficient, Stable Perovskite Solar Cells

In a paper published online in Nature Photonics on October 9, researchers blended multiple self-assembled molecules to form high-entropy molecular contacts, improving hole transport and achieving efficient and stable perovskite solar cells.

Nature Photonics: Phase Control of Interfering Stimulated Raman Pathways in the Extreme Ultraviolet

In a paper published online in Nature Photonics on October 9, researchers modulated population transfer in helium atoms from the ground state to the metastable state by controlling the phase of interfering stimulated Raman pathways in the extreme ultraviolet (XUV) range.

SF-PULSE Lensless Imaging Enables Stain-Free Long-Term Monitoring of Living Cells

Researchers proposed the SF-PULSE lensless imaging method, which can monitor living cells over long periods without staining, and successfully imaged and reconstructed glioblastoma cells.

Frequency Combs and Deep Learning Enable Fast, High-Fidelity Ghost Imaging

Ghost imaging replaces pixelated sensors with correlation measurements between structured illumination and a single-pixel detector. Researchers combined an optical frequency comb with deep learning to achieve faster, higher-fidelity ghost imaging.

Spatiotemporally Resolved Terahertz Emission Nanoscopy Images Spintronic Photocurrents

A paper in Light: Science & Applications uses spatiotemporally resolved terahertz emission nanoscopy to observe ultrafast charge and spin currents in spintronic devices, providing detailed insights for next-generation technologies such as high-efficiency solar cells.

High Thermal Conductivity Radiative Cooling Enables Photonic Thermal Management for Overhead Power Cables

A paper in Light: Science & Applications proposes photonic thermal management for overhead transmission cables using high-thermal-conductivity radiative cooling materials, lowering cable temperatures to boost grid operating capacity.

Ultrashort Laser Pulse Microscope Maps Electron Interactions in Thin Materials

An Optica journal paper reports a wide-field coherent multidimensional spectroscopy microscope (2DESM) that uses ultrashort laser pulses to map the spatial distribution and temporal dynamics of electron interactions in thin materials.