Quantinuum and Microsoft demonstrate reliable logical qubits
The teams reported four logical qubits with circuit error rates up to 800 times lower than the corresponding physical circuits.
Explore the organizations, research hubs, capital and enabling technologies shaping quantum progress — connected to place and primary sources.
Data snapshot · August 2026
QuantumMundi turns a complex, fast-moving field into a map you can search, navigate and investigate.
Search companies, universities, investors and infrastructure by name, place or technology.
Every colored point is a source-linked organization. Numbered points group nearby organizations.
Select a node, country or connection to open its intelligence panel and supporting evidence.
Drag the planisphere to move around the world. Use search, categories and regional lenses to reveal organizations, clusters and verified relationships.
Move through documented milestones, then compare organizational and geographic trajectories. The map follows every selected event.
The teams reported four logical qubits with circuit error rates up to 800 times lower than the corresponding physical circuits.
Read activity as a sequence—not a score. Compare where, when and how organizations or countries appear in the verified timeline.
Within this source set, IonQ has 7 documented moves, while Quantinuum has 3. Counts describe editorial coverage in the current timeline—not market leadership.
70 results in the current view. Select any organization to connect its profile to the map.
Yorktown Heights, United States
Full-stack quantum computing, processors, cloud access and developer tooling.
Santa Barbara, United States
Research program developing quantum processors, error correction and algorithms.
Redmond, United States
Cloud platform connecting quantum hardware, optimization tools and research.
Seattle, United States
Managed cloud service providing access to multiple quantum hardware modalities.
Broomfield, United States
Integrated quantum computing company spanning hardware, software and cybersecurity.
College Park, United States
Trapped-ion quantum systems delivered through cloud and enterprise partnerships.
Berkeley, United States
Superconducting quantum processors and quantum cloud services.
Burnaby, Canada
Quantum annealing systems, hybrid solvers and commercial applications.
Boston, United States
Neutral-atom quantum computers based on programmable Rydberg atom arrays.
Boulder, United States
Gate-based quantum computing using optically trapped neutral atoms.
Palo Alto, United States
Photonic architecture aimed at fault-tolerant, utility-scale quantum computing.
Toronto, Canada
Photonic quantum computing and the open-source PennyLane software library.
Massy, France
Neutral-atom quantum processors, cloud access and application development.
Paris, France
Fault-tolerant quantum computing approach based on error-resistant cat qubits.
Massy, France
Photonic quantum computers, single-photon sources and cloud services.
Espoo, Finland
On-premises superconducting quantum computers and cloud-accessible systems.
Reading, United Kingdom
Quantum computing systems built around a three-dimensional superconducting architecture.
London, United Kingdom
Silicon spin-qubit processors designed for semiconductor-scale manufacturing.
Haywards Heath, United Kingdom
Trapped-ion architecture focused on modular, large-scale quantum computers.
London, United Kingdom
Photonic quantum computing using quantum memories and optical fiber components.
Elmsford, United States
Digital quantum computing platform integrating cryogenic control with superconducting chips.
Boulder, United States
Neutral-atom quantum computing, sensing, timing and quantum software.
Canberra, Australia
Room-temperature diamond quantum accelerators and enabling software.
Sydney, Australia
Atomic-scale silicon quantum processors and precision qubit manufacturing.
Sydney, Australia
CMOS-compatible silicon quantum processors based on electron spin qubits.
Coquitlam, Canada
Distributed quantum computing and networking with silicon spin-photon interfaces.
Sherbrooke, Canada
Error-corrected quantum computing architecture using bosonic superconducting qubits.
Dublin, Ireland
Silicon quantum computing systems designed around integrated cryogenic control.
Enschede, Netherlands
Photonic quantum processors and integrated optical quantum hardware.
Delft, Netherlands
Scalable control stacks for operating quantum processors across modalities.
Tel Aviv, Israel
Hybrid quantum-classical control platform for complex quantum experiments.
Tel Aviv, Israel
High-level quantum software platform for designing and optimizing algorithms.
Sydney, Australia
Quantum infrastructure software for error suppression, automation and sensing.
Cambridge, United Kingdom
Quantum error-correction technology and decoding systems for fault tolerance.
San Sebastián, Spain
Quantum and quantum-inspired software for industry and AI model compression.
Karlsruhe, Germany
Application-focused quantum algorithms for near-term and fault-tolerant hardware.
Garching, Germany
Digital quantum computers based on atoms trapped in optical lattices.
Siegen, Germany
Trapped-ion quantum computing using microwave-based MAGIC technology.
Innsbruck, Austria
Rack-mounted trapped-ion quantum computers and cloud access.
Innsbruck, Austria
Operating systems and architecture tools for solving optimization problems on quantum hardware.
St. Gallen, Switzerland
Quantum algorithms, simulation, security and quantum-as-a-service offerings.
Geneva, Switzerland
Quantum key distribution, quantum random number generation and photon counting.
Bengaluru, India
Quantum-safe cybersecurity products including key distribution and random numbers.
Bengaluru, India
Integrated quantum computing and AI stack spanning hardware, software and applications.
Hefei, China
Quantum computing company developing processors, control systems, software and cloud access.
Paris, France
Investment firm dedicated to quantum technologies and deep physics startups.
Delft, Netherlands
National ecosystem connecting quantum research, talent and commercialization in the Netherlands.
Chicago, United States
Research consortium advancing quantum information science and engineering.
Munich, Germany
Regional initiative joining research institutions and industry around quantum science.
Arlington, United States
Industry-led consortium supporting a robust quantum information science supply chain.
Singapore, Singapore
Software infrastructure for building, compiling and deploying portable quantum applications.
Tokyo, Japan
Quantum algorithms and software focused on chemistry, materials and industrial applications.
Daejeon, South Korea
Quantum algorithms and integrated computing solutions for chemistry and industrial workloads.
Espoo, Finland
Silicon-based quantum processors designed for scalable, compact and energy-efficient systems.
Delft, Netherlands
Open-architecture superconducting quantum processors, integration and foundry services.
Delft, Netherlands
Automated test equipment and protocols for developing, benchmarking and scaling quantum chips.
Montréal, Canada
Full-stack superconducting quantum computers designed for on-premises and HPC deployment.
Copenhagen, Denmark
Deterministic single-photon chips and integrated systems for quantum computing and networking.
Singapore, Singapore
Software infrastructure for designing, compiling and executing fault-tolerant quantum programs.
Singapore, Singapore
Cold-atom quantum gravimetry and AI-powered subsurface intelligence for field applications.
Gothenburg, Sweden
High-density cryogenic hardware for scaling superconducting and spin-qubit processors.
Helsinki, Finland
Cryogenic measurement systems and cooling infrastructure used in quantum technology research and development.
Cambridge, United Kingdom
Photonic networking hardware and entanglement infrastructure for interconnecting modular quantum processors.
Delft, Netherlands
Microwave-to-optical transduction technology designed to connect quantum processors across optical networks.
Kawasaki, Japan
Quantum hardware, simulation and hybrid computing research developed with partners including RIKEN.
Paris, France
Quantum memories, photonic links and software for distributed quantum computing and communication networks.
Paris, France
Quantum processors based on carbon-nanotube spin qubits and long-range superconducting interconnects.
Delft, Netherlands
Superconducting nanowire single-photon detector systems for quantum communication, research and sensing.
Brooklyn, United States
Room-temperature hardware for distributing entanglement across existing telecommunications fiber.
Munich, Germany
Diamond-based quantum sensing systems for non-destructive semiconductor inspection and failure analysis.
QuantumMundi briefs connect technology, organizations and geography through source-led analysis.
Material moves, organized as a source-linked monitoring feed.
Shows quantum-sector revenue expanding beyond computing into sensing and timing systems.
Open signal feed →A useful commercialization signal, while remaining a company-reported financial disclosure.
Open signal feed →Connects a public laboratory, infrastructure and an integrated commercial platform.
Open signal feed →Filter the complete dataset, create a device watchlist, compare organizations and build a precise market view from the Analyst Workspace.
This release is a curated discovery index, not an investment ranking. Records are categorized from the organizations’ own public descriptions and linked to their official sites. Editorial briefs distinguish sourced facts from interpretation. The dataset snapshot is dated August 2026.