Computing

How quantum computing and hybrid quantum-classical methods can solve grid optimization for renewables, EVs and resilience. Practical next steps for utilities.

Q-CTRL’s Fire Opal ‘simulate_dynamics’ suppresses quantum errors to deliver 3,000x speedups and 1% accuracy versus classical simulations, opening new materials and energy research.

Post-Quantum’s Classic McEliece is the first PQC algorithm standardized under ISO/IEC 18033-2, strengthening defenses against ‘Harvest Now, Decrypt Later’ threats.

ORNL and partners used hybrid quantum-classical-AI workflows to model FLiBe molten-salt chemistry for tritium breeding, demonstrating practical quantum value for fusion and materials science.

QUARTERNEXT mobilizes CV-QKD, EuroQCI and EU programmes to produce certified, industrial-grade quantum-safe links. What this means for European digital sovereignty.

A concise executive brief on the real state of quantum computing: hardware progress, near-term use cases, commercialization hurdles, and 3–5 year steps for organizational readiness.

Discover how quantum computing accelerates computational physics—from quantum simulation to hybrid methods—opening new paths in chemistry, materials, and fundamental physics.

Balanced overview of quantum computing: what qubits are, practical applications, why governments and firms like Google and Microsoft invest, and realistic timelines.

Researchers unveil a hybrid qubit with record logical coherence and real-time error correction, narrowing the gap to useful quantum machines for AI, materials and finance.

How business leaders should prepare for practical quantum computing by 2030: timelines, use cases, and concrete steps to integrate quantum with AI and HPC.