Photonic quantum computing

Supports: Capability · core features

AMD’s co-authored technical article describes Backline within PennyLane and Catalyst, using Python/LLVM compilation and Linux RDMA through libibverbs and RoCE v2 to couple classical hardware for quantum-control workloads. The worked example combines CPU orchestration, AMD GPU coprocessing and a Versal FPGA; reproducing latency requires the specified networking and runtime configuration.

Supports: Capability · core features

The Aurora research paper describes a modular photonic scale model using 35 chips, 84 squeezers and 36 photon-number-resolving detectors, furnishing 12 physical qubit modes per cycle. It demonstrates interconnects, real-time decoding and feed-forward primitives, while identifying optical loss as a remaining barrier to crossing the fault-tolerance threshold.

Supports: Capability · technology readiness level

The Aurora research paper describes a modular photonic scale model using 35 chips, 84 squeezers and 36 photon-number-resolving detectors, furnishing 12 physical qubit modes per cycle. It demonstrates interconnects, real-time decoding and feed-forward primitives, while identifying optical loss as a remaining barrier to crossing the fault-tolerance threshold.

Supports: Capability · capability type

The Aurora research paper describes a modular photonic scale model using 35 chips, 84 squeezers and 36 photon-number-resolving detectors, furnishing 12 physical qubit modes per cycle. It demonstrates interconnects, real-time decoding and feed-forward primitives, while identifying optical loss as a remaining barrier to crossing the fault-tolerance threshold.

Supports: Capability · name

The Aurora research paper describes a modular photonic scale model using 35 chips, 84 squeezers and 36 photon-number-resolving detectors, furnishing 12 physical qubit modes per cycle. It demonstrates interconnects, real-time decoding and feed-forward primitives, while identifying optical loss as a remaining barrier to crossing the fault-tolerance threshold.

Supports: Capability · maturity

The Aurora research paper describes a modular photonic scale model using 35 chips, 84 squeezers and 36 photon-number-resolving detectors, furnishing 12 physical qubit modes per cycle. It demonstrates interconnects, real-time decoding and feed-forward primitives, while identifying optical loss as a remaining barrier to crossing the fault-tolerance threshold.

Supports: Capability · technicaldomainslugs

The Aurora research paper describes a modular photonic scale model using 35 chips, 84 squeezers and 36 photon-number-resolving detectors, furnishing 12 physical qubit modes per cycle. It demonstrates interconnects, real-time decoding and feed-forward primitives, while identifying optical loss as a remaining barrier to crossing the fault-tolerance threshold.

Supports: Capability · defence applications

The Aurora research paper describes a modular photonic scale model using 35 chips, 84 squeezers and 36 photon-number-resolving detectors, furnishing 12 physical qubit modes per cycle. It demonstrates interconnects, real-time decoding and feed-forward primitives, while identifying optical loss as a remaining barrier to crossing the fault-tolerance threshold.

Supports: Capability · technicaldomainslugs

The Aurora research paper describes a modular photonic scale model using 35 chips, 84 squeezers and 36 photon-number-resolving detectors, furnishing 12 physical qubit modes per cycle. It demonstrates interconnects, real-time decoding and feed-forward primitives, while identifying optical loss as a remaining barrier to crossing the fault-tolerance threshold.

Supports: Capability · defence applications

The Aurora research paper describes a modular photonic scale model using 35 chips, 84 squeezers and 36 photon-number-resolving detectors, furnishing 12 physical qubit modes per cycle. It demonstrates interconnects, real-time decoding and feed-forward primitives, while identifying optical loss as a remaining barrier to crossing the fault-tolerance threshold.

Supports: Capability · technical tags

The Aurora research paper describes a modular photonic scale model using 35 chips, 84 squeezers and 36 photon-number-resolving detectors, furnishing 12 physical qubit modes per cycle. It demonstrates interconnects, real-time decoding and feed-forward primitives, while identifying optical loss as a remaining barrier to crossing the fault-tolerance threshold.

Supports: Capability · commercial availability

The Aurora research paper describes a modular photonic scale model using 35 chips, 84 squeezers and 36 photon-number-resolving detectors, furnishing 12 physical qubit modes per cycle. It demonstrates interconnects, real-time decoding and feed-forward primitives, while identifying optical loss as a remaining barrier to crossing the fault-tolerance threshold.

Supports: Capability · technical tags

The Aurora research paper describes a modular photonic scale model using 35 chips, 84 squeezers and 36 photon-number-resolving detectors, furnishing 12 physical qubit modes per cycle. It demonstrates interconnects, real-time decoding and feed-forward primitives, while identifying optical loss as a remaining barrier to crossing the fault-tolerance threshold.

Supports: Capability · summary

The Aurora research paper describes a modular photonic scale model using 35 chips, 84 squeezers and 36 photon-number-resolving detectors, furnishing 12 physical qubit modes per cycle. It demonstrates interconnects, real-time decoding and feed-forward primitives, while identifying optical loss as a remaining barrier to crossing the fault-tolerance threshold.

Supports: Mission area · Autonomous Patrol and Monitoring

The Aurora research paper describes a modular photonic scale model using 35 chips, 84 squeezers and 36 photon-number-resolving detectors, furnishing 12 physical qubit modes per cycle. It demonstrates interconnects, real-time decoding and feed-forward primitives, while identifying optical loss as a remaining barrier to crossing the fault-tolerance threshold.

Supports: Mission area · Autonomous Patrol and Monitoring

The Aurora research paper describes a modular photonic scale model using 35 chips, 84 squeezers and 36 photon-number-resolving detectors, furnishing 12 physical qubit modes per cycle. It demonstrates interconnects, real-time decoding and feed-forward primitives, while identifying optical loss as a remaining barrier to crossing the fault-tolerance threshold.

Supports: Mission area · Autonomous Patrol and Monitoring

The Aurora research paper describes a modular photonic scale model using 35 chips, 84 squeezers and 36 photon-number-resolving detectors, furnishing 12 physical qubit modes per cycle. It demonstrates interconnects, real-time decoding and feed-forward primitives, while identifying optical loss as a remaining barrier to crossing the fault-tolerance threshold.

Supports: Mission area · Autonomous Patrol and Monitoring

The Aurora research paper describes a modular photonic scale model using 35 chips, 84 squeezers and 36 photon-number-resolving detectors, furnishing 12 physical qubit modes per cycle. It demonstrates interconnects, real-time decoding and feed-forward primitives, while identifying optical loss as a remaining barrier to crossing the fault-tolerance threshold.