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Capability profile
Nord Quantique develops superconducting bosonic quantum computing using resonator-mode encodings and Tesseract error correction. The architecture targets reduced error-correction overhead; the 256-logical-qubit 2030 system remains a roadmap objective.
These describe the reviewed application scope, not confirmed deployments, released requirements or procurement eligibility.
A technology readiness level is not established by the reviewed public sources.
A specific maturity stage is not established by the reviewed public sources.
Commercial availability is not established by the reviewed public sources.
The publicly described Quantum error correction hardware offering may be relevant to monitoring or remote-operation use cases; this is a derived mapping for reviewer assessment.
This is a reviewed public-source assessment. It is not procurement eligibility, endorsement, customer interest, or classified demand.
These records support this capability and its published Mission area and Defence need connections. A source count is not a count of independent confirmations.
Source type: official company product
Supports: Capability · summary
The official capability material supports the named Quantum error correction hardware offering and the bounded operational description prepared for reviewer consideration.
www.nordquantique.com
Source type: official company product
Supports: Capability · defence applications
Nord Quantique uses superconducting bosonic codes to correct bit and phase flips with low qubit overhead, describing a one-to-one logical-to-physical ratio, tileable architecture and Tesseract code demonstration. Its 256-logical-qubit system is a roadmap target for 2030, not a delivered computer. The company spun out of Institut Quantique at Université de Sherbrooke and lists 1950 rue Roy in Sherbrooke.
Supports: Capability · commercial availability
Nord Quantique uses superconducting bosonic codes to correct bit and phase flips with low qubit overhead, describing a one-to-one logical-to-physical ratio, tileable architecture and Tesseract code demonstration. Its 256-logical-qubit system is a roadmap target for 2030, not a delivered computer. The company spun out of Institut Quantique at Université de Sherbrooke and lists 1950 rue Roy in Sherbrooke.
Supports: Capability · technical tags
Nord Quantique uses superconducting bosonic codes to correct bit and phase flips with low qubit overhead, describing a one-to-one logical-to-physical ratio, tileable architecture and Tesseract code demonstration. Its 256-logical-qubit system is a roadmap target for 2030, not a delivered computer. The company spun out of Institut Quantique at Université de Sherbrooke and lists 1950 rue Roy in Sherbrooke.
Supports: Capability · name
Nord Quantique uses superconducting bosonic codes to correct bit and phase flips with low qubit overhead, describing a one-to-one logical-to-physical ratio, tileable architecture and Tesseract code demonstration. Its 256-logical-qubit system is a roadmap target for 2030, not a delivered computer. The company spun out of Institut Quantique at Université de Sherbrooke and lists 1950 rue Roy in Sherbrooke.
Public sources cited · Facts and assessments kept separate · Human review
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Supports: Capability · maturity
Nord Quantique uses superconducting bosonic codes to correct bit and phase flips with low qubit overhead, describing a one-to-one logical-to-physical ratio, tileable architecture and Tesseract code demonstration. Its 256-logical-qubit system is a roadmap target for 2030, not a delivered computer. The company spun out of Institut Quantique at Université de Sherbrooke and lists 1950 rue Roy in Sherbrooke.
Supports: Capability · technicaldomainslugs
Nord Quantique uses superconducting bosonic codes to correct bit and phase flips with low qubit overhead, describing a one-to-one logical-to-physical ratio, tileable architecture and Tesseract code demonstration. Its 256-logical-qubit system is a roadmap target for 2030, not a delivered computer. The company spun out of Institut Quantique at Université de Sherbrooke and lists 1950 rue Roy in Sherbrooke.
Supports: Capability · core features
Nord Quantique uses superconducting bosonic codes to correct bit and phase flips with low qubit overhead, describing a one-to-one logical-to-physical ratio, tileable architecture and Tesseract code demonstration. Its 256-logical-qubit system is a roadmap target for 2030, not a delivered computer. The company spun out of Institut Quantique at Université de Sherbrooke and lists 1950 rue Roy in Sherbrooke.
Supports: Capability · technology readiness level
Nord Quantique uses superconducting bosonic codes to correct bit and phase flips with low qubit overhead, describing a one-to-one logical-to-physical ratio, tileable architecture and Tesseract code demonstration. Its 256-logical-qubit system is a roadmap target for 2030, not a delivered computer. The company spun out of Institut Quantique at Université de Sherbrooke and lists 1950 rue Roy in Sherbrooke.
Supports: Capability · technical tags
Nord Quantique uses superconducting bosonic codes to correct bit and phase flips with low qubit overhead, describing a one-to-one logical-to-physical ratio, tileable architecture and Tesseract code demonstration. Its 256-logical-qubit system is a roadmap target for 2030, not a delivered computer. The company spun out of Institut Quantique at Université de Sherbrooke and lists 1950 rue Roy in Sherbrooke.
Supports: Capability · core features
Nord Quantique uses superconducting bosonic codes to correct bit and phase flips with low qubit overhead, describing a one-to-one logical-to-physical ratio, tileable architecture and Tesseract code demonstration. Its 256-logical-qubit system is a roadmap target for 2030, not a delivered computer. The company spun out of Institut Quantique at Université de Sherbrooke and lists 1950 rue Roy in Sherbrooke.
Supports: Capability · core features
Nord Quantique uses superconducting bosonic codes to correct bit and phase flips with low qubit overhead, describing a one-to-one logical-to-physical ratio, tileable architecture and Tesseract code demonstration. Its 256-logical-qubit system is a roadmap target for 2030, not a delivered computer. The company spun out of Institut Quantique at Université de Sherbrooke and lists 1950 rue Roy in Sherbrooke.
Supports: Capability · technical tags
Nord Quantique uses superconducting bosonic codes to correct bit and phase flips with low qubit overhead, describing a one-to-one logical-to-physical ratio, tileable architecture and Tesseract code demonstration. Its 256-logical-qubit system is a roadmap target for 2030, not a delivered computer. The company spun out of Institut Quantique at Université de Sherbrooke and lists 1950 rue Roy in Sherbrooke.
Supports: Capability · capability type
Nord Quantique uses superconducting bosonic codes to correct bit and phase flips with low qubit overhead, describing a one-to-one logical-to-physical ratio, tileable architecture and Tesseract code demonstration. Its 256-logical-qubit system is a roadmap target for 2030, not a delivered computer. The company spun out of Institut Quantique at Université de Sherbrooke and lists 1950 rue Roy in Sherbrooke.
Supports: Capability · defence applications
Nord Quantique uses superconducting bosonic codes to correct bit and phase flips with low qubit overhead, describing a one-to-one logical-to-physical ratio, tileable architecture and Tesseract code demonstration. Its 256-logical-qubit system is a roadmap target for 2030, not a delivered computer. The company spun out of Institut Quantique at Université de Sherbrooke and lists 1950 rue Roy in Sherbrooke.
Supports: Capability · summary
Nord Quantique uses superconducting bosonic codes to correct bit and phase flips with low qubit overhead, describing a one-to-one logical-to-physical ratio, tileable architecture and Tesseract code demonstration. Its 256-logical-qubit system is a roadmap target for 2030, not a delivered computer. The company spun out of Institut Quantique at Université de Sherbrooke and lists 1950 rue Roy in Sherbrooke.
Supports: Capability · core features
Nord Quantique uses superconducting bosonic codes to correct bit and phase flips with low qubit overhead, describing a one-to-one logical-to-physical ratio, tileable architecture and Tesseract code demonstration. Its 256-logical-qubit system is a roadmap target for 2030, not a delivered computer. The company spun out of Institut Quantique at Université de Sherbrooke and lists 1950 rue Roy in Sherbrooke.
Supports: Capability · defence applications
Nord Quantique uses superconducting bosonic codes to correct bit and phase flips with low qubit overhead, describing a one-to-one logical-to-physical ratio, tileable architecture and Tesseract code demonstration. Its 256-logical-qubit system is a roadmap target for 2030, not a delivered computer. The company spun out of Institut Quantique at Université de Sherbrooke and lists 1950 rue Roy in Sherbrooke.
