Diraq establishes a research and development laboratory at Roadrunner Quantum Lab in Albuquerque, New Mexico, advancing its silicon quantum computing technology toward utility-scale applications and expanding its U.S. presence.

Diraq establishes a research and development laboratory at Roadrunner Quantum Lab in Albuquerque, New Mexico, advancing its silicon quantum computing technology toward utility-scale applications and expanding its U.S. presence.
RWTH Aachen researchers develop analytical framework for predicting valley splitting in silicon qubits with unprecedented 1% precision, revealing asymptotic freedom at high amplitudes for more stable qubit designs.
Diraq opens new R&D lab in Albuquerque to advance silicon-based quantum computing as part of DARPA's Quantum Benchmarking Initiative, targeting 150,000 physical qubits on a single chip by 2029.
Diraq establishes dedicated silicon spin-qubit measurement lab in Albuquerque with New Mexico state funding and DARPA QBI backing. Targets 150,000 physical qubits by 2029 using CMOS-compatible semiconductor architecture.
Quantum Motion delivers UK's first commercial silicon-spin quantum computer to NQCC and secures $160M Series C funding, promoting quantum hardware veteran Anna Stockklauser to Chief Product Officer to lead enterprise deployments.
Quobly and qBraid enable cloud-based testing of silicon spin-qubit applications using Alloy Forge with realistic noise modeling, bridging software emulation to hardware deployment ahead of Pioneer QPU commercial release.
Quobly and qBraid announce integration of Alloy Forge, a silicon quantum development environment, onto qBraid's cloud platform with access to 24+ quantum computers, accelerating silicon-based quantum system commercialization.
Diraq und Dell etablieren einen hybriden Quanten-Klassik-Testbed mit kolokalisierten Silicon-QPUs und HPC-Servern in Sydney, das Echtzeit-Qubit-Kalibrierung und Orchestrierung der Quantenfehlerkorrektur bei ultraniedriger Latenz ermöglicht.
Diraq and Dell establish hybrid quantum-classical testbed with co-located silicon QPUs and HPC servers in Sydney, enabling real-time qubit calibration and quantum error correction orchestration at ultra-low latency.
Quobly validates single-chip quantum operations (readout, single-qubit, and two-qubit gates) on industrial 300mm FD-SOI silicon, demonstrating viable technology transfer for large-scale silicon spin-qubit systems.
Diraq and Equinix are deploying the world's first silicon spin quantum computer in a shared data center in Sydney. The 8-qubit system draws <20kW and integrates with existing infrastructure, advancing practical quantum-classical hybrid computing.
Diraq deploys silicon spin quantum computer at Equinix Sydney with <20kW power and integrated cooling, demonstrating practical integration with classical computing infrastructure for utility-scale deployment.
Silicon spin qubits achieve enhanced connectivity through electron shuttling—a technique that physically moves electrons to reduce circuit depth, advancing both NISQ and fault-tolerant quantum computing.
First demonstration of opto-electrical readout of donor bound exciton transitions in silicon-on-insulator, extending this hybrid optical-electrical detection scheme from bulk silicon to the SOI platform underpinning silicon photonics integration.
Quantum Motion enables automated fault-tolerant compilation for silicon spin quantum processors via NVIDIA CUDA-Q Logical orchestration layer, advancing practical quantum error correction implementation.
Quobly and Absolut System qualified the QCube® 100-Class 3 cryogenic platform, delivering 100 mW cooling at 500 mK to support Alloy silicon spin-qubit processors. Roadmap targets 100,000 qubits by 2029 and 1 million for fault-tolerant computing by 2032.
Quobly accelerates silicon spin qubit manufacturing scale-up with new partnerships for testing and metrology, backed by SEALSQ's $5M integration agreement for post-quantum security in quantum platforms.
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Researchers extended hole spin qubit coherence times from 177 nanoseconds to over 3 microseconds using concatenated continuous microwave driving, advancing silicon-based quantum computing performance and stability.
imec.ventures backs Quantum Motion's silicon spin qubits, positioning them as quantum computing's potential transistor moment—a scalable qubit architecture attracting major venture investment.
Quantum Motion closes second Series C tranche, securing backing from imec.ventures, Sony Innovation Fund, S3 Ventures, Lansdowne, and Inkef to advance scalable silicon quantum computing development.