Nu Quantum introduces a novel approach to scale quantum computers through interconnection, mirroring how classical and AI systems network processors together.

Nu Quantum introduces a novel approach to scale quantum computers through interconnection, mirroring how classical and AI systems network processors together.
QuantWare challenges conventional scaling metrics, arguing quantum computers should be evaluated on compute-per-watt efficiency rather than raw qubit count—a paradigm shift for performance benchmarking.
Quantum chemistry and life science transition from early adoption to institutional scaling through process innovation and infrastructure consolidation. Major pharma and tech firms are building permanent ecosystems with $200B-$500B potential by 2035.
Sandia researchers analyzed machine learning and computer science approaches to automate spin qubit tuning, reducing hours-long manual processes to minutes per device—essential for scaling quantum systems to millions of qubits.
Diraq published 'The Case for Silicon' white paper detailing how silicon spin qubits and CMOS manufacturing enable 2+ million physical qubits and 10,000+ logical qubits by 2031, targeting sub-$1/qubit costs and data centre integration.
Quantum computing scalability requires efficient architectures that scale both vertically and horizontally to achieve the logical qubit volumes necessary for commercially viable solutions to complex computational problems.
Quobly and TNO deepen collaboration to scale silicon spin qubits using proven semiconductor manufacturing techniques. The 300mm FD-SOI platform leverages existing foundry infrastructure to overcome production engineering challenges, targeting 1M qubits by 2032.