NLM Photonics and LIGENTEC demonstrate first silicon nitride organic hybrid modulators on a commercial platform, extending operation into visible spectrum for quantum photonics and sensing applications.

NLM Photonics and LIGENTEC demonstrate first silicon nitride organic hybrid modulators on a commercial platform, extending operation into visible spectrum for quantum photonics and sensing applications.
Researchers demonstrated theory-independent certification of quantum nonclassicality in a three-mode photonic chip using theory-agnostic tomography and simplex-embeddability testing—no quantum theory assumptions required.
Theory predicts light transmitted through weakly-coupled atomic ensembles can violate Bell inequalities via antibunched suppression and phase-coherent bunching mechanisms, achievable with 75-250+ atoms depending on coupling strength.
Comprehensive 32-level atomic model captures photon-count statistics in four-wave mixing but falls short on coincidences, revealing that collective effects beyond individual atom dynamics are crucial for quantum correlations.
Researchers demonstrate a fully integrated quantum frequency processor combining biphoton sources, spectral control, and high-dimensional entanglement on a 4×7mm silicon chip with >99.9% fidelity gates—advancing scalable photonic quantum processors.
Demonstrates that random hypercube photonic circuits achieve near-maximal entanglement across all subsystems at logarithmic circuit depth Θ(log n), connecting entanglement generation to sampling complexity hardness.
Researchers demonstrate controlled formation of single-photon emitters in AlN through proton irradiation and annealing, with efficiency dramatically enhanced under N-rich growth conditions—achieving 8×10⁷ cm⁻² emitter density.
Novel symmetry-based framework unifies few-photon quantum interference phenomena, revealing how spatial exchange properties directly determine measurement outcomes and optimality in quantum metrology applications.
Closed-form expressions for cubic-phase gate Fock amplitudes on Gaussian states using Airy functions. Solves numerical instabilities at weak nonlinearities crucial for continuous-variable quantum computing experiments.
ICFO - The Institute of Photonic Sciences is hiring:
Post-doctoral position in Development of Cold Atom-Based Quantum Network Nodes
Quantum researchers successfully transmitted entangled photons 7 kilometers across Guanabara Bay in Brazil, advancing long-distance quantum communication infrastructure capabilities.
UTS researchers engineered a monolithic silicon carbide metalens simultaneously collecting light at 860nm and 1240nm from nitrogen and silicon vacancy defects, enabling compact quantum photonic systems without separate optics.
Xanadu and ASML partner to minimize photon scattering in integrated quantum photonic circuits through advanced lithography, addressing a key barrier to fault-tolerant quantum error correction in room-temperature systems.
NLM Photonics attracts new investors to advance organic photonics technology, aiming to scale quantum photonic computing systems for practical applications.
A three-emitter scheme generates high-purity two-photon bundles where finite level structures intrinsically exclude unwanted higher-excitation states, achieving near-100% bundle purity with potential quantum information applications.
Via #OPG_Optica: Integrated bright source of polarization-entangled photons using lithium niobate photonic chips https://bit.ly/4qZmbrf #QuantumComputation #QuantumPhotonics 💡⚛️
PsiQuantum awarded $100M to develop critical quantum components including optical switches and single-photon detectors with domestic manufacturing focus for fault-tolerant quantum computing infrastructure.
ID Quantique participates in Quantum Photonics Spotlight 2026, a major conference on quantum photonics technology in Paderborn (Sept 28-Oct 2). Meet experts and explore latest advancements in the field.
PsiQuantum secures $100M federal grant to scale photonic quantum computing components—advancing optical switches, single-photon detectors, and packaging for fault-tolerant quantum systems.
Researchers boosted nonlinear optical response to ~14 nm V⁻¹ by integrating engineered GaAs/AlGaAs quantum-well heterostructures with dielectric metasurfaces, enabling compact, efficient nonlinear devices for telecommunications and quantum computing.