ORCA's PT-3 photonic quantum computer delivers 20% protein design improvement when paired with NVIDIA GPUs and runs energy optimization 12× faster than its predecessor. Operational at Digital Realty's London Innovation Lab.

ORCA's PT-3 photonic quantum computer delivers 20% protein design improvement when paired with NVIDIA GPUs and runs energy optimization 12× faster than its predecessor. Operational at Digital Realty's London Innovation Lab.
ORCA Computing unveils PT-3, its latest-generation photonic quantum computer designed to achieve commercial quantum advantage, now deployed at London's Digital Realty Innovation Lab.
Reconstructs classic Michelson interference using only photon counting statistics and algebra—no wave assumptions needed. Demonstrates how modern discrete photon detectors encode quantum optical phenomena.
Researchers developed a nonlinear squeezing framework to verify non-Gaussianity in continuous quantum states, achieving the first experimental certification of multi-photon-added coherent states with third- and fifth-order quantum nonlinearities.
Advancing photonic quantum computing: our Gaussian formalism efficiently characterizes optical losses without exponential overhead, enabling realistic simulations of quantum algorithms on noisy photonic hardware.
Researchers demonstrated a 660× temporal magnification technique enabling direct observation of photon bunching in broadband thermal light with 250 GHz bandwidth—overcoming detector resolution limits without spectral filtering.
Framework quantifies how dephasing in on-demand single photon arrays affects multi-photon boson sampling outcomes, enabling chip-scale quantum optical circuit design with realistic photon properties.
Novel all-optical scheme for preparing large-amplitude cat states with near-unity probability using quantum non-demolition interactions. Robust to photon loss and enables efficient quantum error correction using Gottesman-Kitaev-Preskill codes.
Proposes using time-bin encoded Bell states for distributed quantum RF sensing, achieving 6 dB sensitivity enhancement over polarization-based approaches via antipodal sampling while preserving 3 dB quantum entanglement advantage.
French photonic quantum company Quandela is partnering with South Korean organizations over two years to advance quantum chip manufacturing, system integration, and real-world demonstrations.
New algorithms achieve up to 30% reduction in quantum emitters needed for photonic graph states. Four heuristic approaches optimize emission ordering—an NP-hard problem—with further 20% improvements when combined with existing optimization techniques.
Researchers discovered a path-complementarity mechanism in cavity polaritons enabling directional quantum light with asymmetric photon statistics while preserving coherent path entanglement—a breakthrough for practical quantum-optical systems.
Bengaluru-based Quanfluence secured $10M Series A to advance full-stack photonic quantum computing. The team targets initial photonic processors by 2027 and scalable fault-tolerant systems by 2029, combining custom silicon and quantum-inspired hardware.
New dual-trigger technique for superconducting nanowire detectors resolves 1-3 photons with 99% confidence and achieves sub-41ps timing precision, enabling real-time quantum signal analysis without post-processing.
Photon-phonon coupling breakthrough: Researcher receives $1.35M to develop quantum technologies pairing photons (ideal for communication) with phonons (ideal for storage), enabling new sensing and communication tools to explore quantum physics limits.
Bengaluru-based quantum startup Quanfluence raised $10M led by Chiratae Ventures to develop photonic quantum computers, with co-investment from Pi Ventures and Rainmatter by Zerodha.
Quanfluence raised $10M to develop an integrated photonic quantum computing system combining indigenously designed photonic chips, control electronics, and software into a unified platform.
Quandela and Korea Research Institute of Bioscience and Biotechnology partnered to leverage photonic quantum computing, AI, and classical computing to accelerate drug discovery and tackle complex biological challenges.
Xanadu partners with GlobalFoundries to scale photonic hardware manufacturing from lab prototypes to 300mm production, enabling mass production of ultra-low loss Silicon Nitride circuits and single-photon detectors for fault-tolerant quantum systems.
Xanadu and GlobalFoundries announce strategic partnership to scale photonic quantum computing production, combining expertise in quantum photonic design with semiconductor manufacturing capabilities.