Quandela and NVIDIA published a technical framework for integrating photonic quantum processors into AI and HPC environments, demonstrating low-latency integration capabilities for practical quantum-classical workflows.

Quandela and NVIDIA published a technical framework for integrating photonic quantum processors into AI and HPC environments, demonstrating low-latency integration capabilities for practical quantum-classical workflows.
We propose a practical in situ protocol for simultaneously characterizing photon-subtraction device parameters using only operational measurement data. Joint parameter estimation outperforms sequential methods across experimentally relevant regimes.
Quandela's photonic quantum computers now accessible to Canadian researchers and SMEs via CMC's Quantum Computing Sandbox, offering cloud-based access to test platforms before major investment decisions.
Xanadu collaborates with ASML to reduce optical loss in photonic quantum processors through advanced lithography targeting line edge roughness, addressing a critical challenge for scaling practical fault-tolerant quantum computers.
Q.ANT brings IBM quantum hardware expert Joerg Behrend as VP Hardware to scale photonic processor production from R&D to commercial volume. Behrend will oversee development of next-generation Native Processing Units across Stuttgart and Austin facilities.
Researchers observe self-sustained limit-cycle oscillations in coupled photon condensates driven purely by dissipative interactions, demonstrating that non-Hermitian dynamics can organize complex many-body behavior without conservative nonlinearities.
Xanadu and ASML collaborate on advanced lithography techniques to manufacture photonic quantum hardware, advancing integrated photonic quantum processor scalability.
Qubit coupled to photonic graphene's zigzag edge exhibits damped Rabi oscillations rather than typical decay, driven by edge-localized flat band. Enables engineering novel quantum dynamics via lattice boundary condition modifications.
Novel bosonic Hamiltonian designs implement discrete Fourier transforms in photonic circuits via single-stage evolution with O(N log log N) scaling—enabling 2500-dim QFT with 2,625 interferometers vs 3 million for conventional architectures.
Quandela validated low-latency integration between photonic quantum processors and NVIDIA AI infrastructure, enabling hybrid quantum-classical computing. Expands to Canada's Quantum Computing Sandbox and partners with Mekdam Holding Group in Qatar.
PsiQuantum finalized a $100M CHIPS Act award to accelerate domestic manufacturing of fault-tolerant photonic quantum components, including BTO thin-film materials and single-photon detectors, strengthening U.S. quantum supply chains.
ID Quantique presents advances in single-photon detection technology at CBCTQ 2026 in Niterói (Sept 21-25), with technical presentations and industry roundtable participation.
Researchers demonstrate single-photon structured light-matter interactions in semiconductor micropillar cavities with quantum dots, achieving spin-locked chiral orbital angular momentum and tunable spin-orbit entanglements for photonic quantum technologies.
Sparrow Quantum's deterministic single-photon source delivers 500M+ photons/sec at 1 GHz with >50% fiber efficiency and high indistinguishability, enabling previously infeasible multi-photon quantum experiments and networking protocols.
Demonstrated coincidence-based spectral filtering improves photon triplet generation from cascaded downconversion by 1.64×, enabling efficient coupling of broadband and narrowband optical stages without source modification.
Researchers achieved over 500 MHz in-fiber single-photon flux using quantum dots in photonic crystal waveguides with >50% efficiency, enabling direct measurement via standard optical powermeters and unlocking new photonic quantum information protocols.
Sparrow Quantum sets new record of 500 million usable photons per second, advancing photonic quantum computing performance capabilities.
Novel purification schemes for photonic graph states improve fidelity from ~0.86 to ~0.988 using only linear optics and photon detectors—enabling scalable photonic quantum computing with quantum emitters.
Theory reveals how mixing multiple nonreciprocal interactions in photonic systems creates nested Hopf-link braids with topological phase transitions, potentially enabling fault-tolerant quantum communication and robust computing.