Loading True North Map…
Aurora demonstrates a modular photonic quantum architecture linking 35 chips through fibre with real-time decoding. The published experiment is a scale model for future fault-tolerant systems, with optical loss still a major constraint.
These describe the reviewed application scope, not confirmed deployments, released requirements or procurement eligibility.
Peer-reviewed experimental scale model; fault-tolerant commercial operation is not established.
Research demonstration; no inspected offer of a fault-tolerant Aurora computer.
A technology readiness level is not established by the reviewed public sources.
No reviewed Mission area or released Defence need connection is currently published.
These records support this capability and its published Mission area and Defence need connections. A source count is not a count of independent confirmations.
Aghaee Rad et al., Nature
Source type: official report
Supports: Capability · technical tags
The Aurora paper reports an experimental scale model using 35 photonic chips and fibre-linked rack modules, with 12 physical qubit modes per clock cycle and real-time decoding. It describes optical loss as a remaining barrier to fault-tolerant operation. The Aurora paper states that most modules operate at room temperature but its photon-number-resolving detector system is housed in a cryostat; the whole machine should not be described as entirely room-temperature equipment.
Supports: Capability · defence applications
The Aurora paper reports an experimental scale model using 35 photonic chips and fibre-linked rack modules, with 12 physical qubit modes per clock cycle and real-time decoding. It describes optical loss as a remaining barrier to fault-tolerant operation. The Aurora paper states that most modules operate at room temperature but its photon-number-resolving detector system is housed in a cryostat; the whole machine should not be described as entirely room-temperature equipment.
Supports: Capability · core features
The Aurora paper reports an experimental scale model using 35 photonic chips and fibre-linked rack modules, with 12 physical qubit modes per clock cycle and real-time decoding. It describes optical loss as a remaining barrier to fault-tolerant operation. The Aurora paper states that most modules operate at room temperature but its photon-number-resolving detector system is housed in a cryostat; the whole machine should not be described as entirely room-temperature equipment.
Supports: Capability · maturity
The Aurora paper reports an experimental scale model using 35 photonic chips and fibre-linked rack modules, with 12 physical qubit modes per clock cycle and real-time decoding. It describes optical loss as a remaining barrier to fault-tolerant operation. The Aurora paper states that most modules operate at room temperature but its photon-number-resolving detector system is housed in a cryostat; the whole machine should not be described as entirely room-temperature equipment.
Supports: Capability · commercial availability
The Aurora paper reports an experimental scale model using 35 photonic chips and fibre-linked rack modules, with 12 physical qubit modes per clock cycle and real-time decoding. It describes optical loss as a remaining barrier to fault-tolerant operation. The Aurora paper states that most modules operate at room temperature but its photon-number-resolving detector system is housed in a cryostat; the whole machine should not be described as entirely room-temperature equipment.
Supports: Capability · core features
The Aurora paper reports an experimental scale model using 35 photonic chips and fibre-linked rack modules, with 12 physical qubit modes per clock cycle and real-time decoding. It describes optical loss as a remaining barrier to fault-tolerant operation. The Aurora paper states that most modules operate at room temperature but its photon-number-resolving detector system is housed in a cryostat; the whole machine should not be described as entirely room-temperature equipment.
Supports: Capability · summary
The Aurora paper reports an experimental scale model using 35 photonic chips and fibre-linked rack modules, with 12 physical qubit modes per clock cycle and real-time decoding. It describes optical loss as a remaining barrier to fault-tolerant operation. The Aurora paper states that most modules operate at room temperature but its photon-number-resolving detector system is housed in a cryostat; the whole machine should not be described as entirely room-temperature equipment.
Supports: Capability · capability type
The Aurora paper reports an experimental scale model using 35 photonic chips and fibre-linked rack modules, with 12 physical qubit modes per clock cycle and real-time decoding. It describes optical loss as a remaining barrier to fault-tolerant operation. The Aurora paper states that most modules operate at room temperature but its photon-number-resolving detector system is housed in a cryostat; the whole machine should not be described as entirely room-temperature equipment.
Supports: Capability · technical tags
The Aurora paper reports an experimental scale model using 35 photonic chips and fibre-linked rack modules, with 12 physical qubit modes per clock cycle and real-time decoding. It describes optical loss as a remaining barrier to fault-tolerant operation. The Aurora paper states that most modules operate at room temperature but its photon-number-resolving detector system is housed in a cryostat; the whole machine should not be described as entirely room-temperature equipment.
Supports: Capability · technicaldomainslugs
The Aurora paper reports an experimental scale model using 35 photonic chips and fibre-linked rack modules, with 12 physical qubit modes per clock cycle and real-time decoding. It describes optical loss as a remaining barrier to fault-tolerant operation. The Aurora paper states that most modules operate at room temperature but its photon-number-resolving detector system is housed in a cryostat; the whole machine should not be described as entirely room-temperature equipment.
Supports: Capability · technicaldomainslugs
The Aurora paper reports an experimental scale model using 35 photonic chips and fibre-linked rack modules, with 12 physical qubit modes per clock cycle and real-time decoding. It describes optical loss as a remaining barrier to fault-tolerant operation. The Aurora paper states that most modules operate at room temperature but its photon-number-resolving detector system is housed in a cryostat; the whole machine should not be described as entirely room-temperature equipment.
Supports: Capability · defence applications
The Aurora paper reports an experimental scale model using 35 photonic chips and fibre-linked rack modules, with 12 physical qubit modes per clock cycle and real-time decoding. It describes optical loss as a remaining barrier to fault-tolerant operation. The Aurora paper states that most modules operate at room temperature but its photon-number-resolving detector system is housed in a cryostat; the whole machine should not be described as entirely room-temperature equipment.
Supports: Capability · defence applications
The Aurora paper reports an experimental scale model using 35 photonic chips and fibre-linked rack modules, with 12 physical qubit modes per clock cycle and real-time decoding. It describes optical loss as a remaining barrier to fault-tolerant operation. The Aurora paper states that most modules operate at room temperature but its photon-number-resolving detector system is housed in a cryostat; the whole machine should not be described as entirely room-temperature equipment.
Supports: Capability · core features
The Aurora paper reports an experimental scale model using 35 photonic chips and fibre-linked rack modules, with 12 physical qubit modes per clock cycle and real-time decoding. It describes optical loss as a remaining barrier to fault-tolerant operation. The Aurora paper states that most modules operate at room temperature but its photon-number-resolving detector system is housed in a cryostat; the whole machine should not be described as entirely room-temperature equipment.
Supports: Capability · slug
The Aurora paper reports an experimental scale model using 35 photonic chips and fibre-linked rack modules, with 12 physical qubit modes per clock cycle and real-time decoding. It describes optical loss as a remaining barrier to fault-tolerant operation. The Aurora paper states that most modules operate at room temperature but its photon-number-resolving detector system is housed in a cryostat; the whole machine should not be described as entirely room-temperature equipment.
Supports: Capability · name
The Aurora paper reports an experimental scale model using 35 photonic chips and fibre-linked rack modules, with 12 physical qubit modes per clock cycle and real-time decoding. It describes optical loss as a remaining barrier to fault-tolerant operation. The Aurora paper states that most modules operate at room temperature but its photon-number-resolving detector system is housed in a cryostat; the whole machine should not be described as entirely room-temperature equipment.
Supports: Capability · technology readiness level
The Aurora paper reports an experimental scale model using 35 photonic chips and fibre-linked rack modules, with 12 physical qubit modes per clock cycle and real-time decoding. It describes optical loss as a remaining barrier to fault-tolerant operation. The Aurora paper states that most modules operate at room temperature but its photon-number-resolving detector system is housed in a cryostat; the whole machine should not be described as entirely room-temperature equipment.
Supports: Capability · core features
The Aurora paper reports an experimental scale model using 35 photonic chips and fibre-linked rack modules, with 12 physical qubit modes per clock cycle and real-time decoding. It describes optical loss as a remaining barrier to fault-tolerant operation. The Aurora paper states that most modules operate at room temperature but its photon-number-resolving detector system is housed in a cryostat; the whole machine should not be described as entirely room-temperature equipment.
Supports: Capability · technical tags
The Aurora paper reports an experimental scale model using 35 photonic chips and fibre-linked rack modules, with 12 physical qubit modes per clock cycle and real-time decoding. It describes optical loss as a remaining barrier to fault-tolerant operation. The Aurora paper states that most modules operate at room temperature but its photon-number-resolving detector system is housed in a cryostat; the whole machine should not be described as entirely room-temperature equipment.
Public sources cited · Facts and assessments kept separate · Human review
Loading related records…
