Canadian quantum-hardware company developing error-corrected quantum computing technology.
Operating context
Nord Quantique is developing superconducting quantum computing with bosonic error correction, encoding logical information in resonator modes. Its Tesseract approach aims to reduce the physical-qubit overhead of error correction; the stated one-to-one logical/physical relationship should not be read as eliminating control, readout or supporting hardware. The company’s 256-logical-qubit system by 2030 remains a roadmap target. A May 2026 financing announcement and selection for DARPA Quantum Benchmarking Initiative Stage B provide evidence of continuing development and external evaluation. Stage B evaluates the credibility of a utility-scale pathway; it is not acceptance of a deployed production computer. A partner discussion is most useful around measured error suppression, logical gate performance and the full resources needed to reproduce those results.
Canadian footprint
Nord Quantique has a documented Canadian operating presence in Sherbrooke, Quebec, Canada. Its public organization and capability evidence should be read at that location and national scope only where the cited sources explicitly support it.
Sherbrooke, Quebec is the published city-level context for Nord Quantique. It does not imply a street address or exact facility location.
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.
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.
Reviewed connections indicate possible relevance based on public evidence. They do not indicate procurement direction, eligibility, endorsement or customer interest.
Questions for a first conversation
01
Which measured logical error rates and gate benchmarks demonstrate progress beyond physical-qubit performance, and what hardware and control resources are included in the scaling estimate?
Replaces a generic quantum-hardware description with the error-correction architecture and benchmark stage.
Original sources 4 linked records
These records support the organization, its owned capabilities and their reviewed connections. A source count is not a count of independent confirmations.
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.
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.
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.
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: Profile · operating context
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.
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.
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.
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: Bosonic quantum error-correction hardware · 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.
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.
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: Bosonic quantum error-correction hardware · 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.
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.
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: Bosonic quantum error-correction hardware · 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: Bosonic quantum error-correction hardware · 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.
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: Bosonic quantum error-correction hardware · 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.
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.
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: Bosonic quantum error-correction hardware · 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.
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.
Nord Quantique announced a $30 million growth equity investment and a US$1.4 billion valuation on May 18, 2026, to advance fault-tolerant computing toward 2030. The release separately describes US$16 million Canadian Quantum Champions support and DARPA Stage B funding; later-stage potential funding is conditional. The $30 million amount lacks an explicit currency label in the body and is not silently converted.
Supports: Profile · operating context
Nord Quantique announced a $30 million growth equity investment and a US$1.4 billion valuation on May 18, 2026, to advance fault-tolerant computing toward 2030. The release separately describes US$16 million Canadian Quantum Champions support and DARPA Stage B funding; later-stage potential funding is conditional. The $30 million amount lacks an explicit currency label in the body and is not silently converted.
The official company material describes Nord Quantique as a Canadian technology business with the public offering summarized in this candidate.
Supports: Profile · canadian footprint
The official capability material supports the named Quantum error correction hardware offering and the bounded operational description prepared for reviewer consideration.
Supports: Profile · editorial profile version
Nord Quantique has sufficient mapped public evidence for private reviewer consideration of the shared editorial profile template.
DARPA independently lists Nord Quantique of Sherbrooke among 11 Stage B QBI participants, using superconducting qubits with bosonic error correction. The initiative tests whether approaches can achieve utility-scale operation by 2033. Stage B selection is not Stage C admission or verification of a useful quantum computer.
Public sources cited · Facts and assessments kept separate · Human review
Nord Quantique announced a $30 million growth equity investment and a US$1.4 billion valuation on May 18, 2026, to advance fault-tolerant computing toward 2030. The release separately describes US$16 million Canadian Quantum Champions support and DARPA Stage B funding; later-stage potential funding is conditional. The $30 million amount lacks an explicit currency label in the body and is not silently converted.
Nord Quantique announced a $30 million growth equity investment and a US$1.4 billion valuation on May 18, 2026, to advance fault-tolerant computing toward 2030. The release separately describes US$16 million Canadian Quantum Champions support and DARPA Stage B funding; later-stage potential funding is conditional. The $30 million amount lacks an explicit currency label in the body and is not silently converted.
Nord Quantique announced a $30 million growth equity investment and a US$1.4 billion valuation on May 18, 2026, to advance fault-tolerant computing toward 2030. The release separately describes US$16 million Canadian Quantum Champions support and DARPA Stage B funding; later-stage potential funding is conditional. The $30 million amount lacks an explicit currency label in the body and is not silently converted.
The official public contact pathway for Nord Quantique is https://nordquantique.ca/.
Supports: Profile · operating context
The official capability material supports the named Quantum error correction hardware offering and the bounded operational description prepared for reviewer consideration.
True North Map derives this first-conversation question from the documented Nord Quantique capability, current evidence and the decision gap that remains.
Nord Quantique's public evidence establishes its current role and offering, but it does not answer every access, configuration, eligibility, maturity or buyer question needed for a first business-development conversation.
The official capability material supports the named Quantum error correction hardware offering and the bounded operational description prepared for reviewer consideration.
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