Quantum Machines today, unveiled The Open Acceleration Stack, a modular framework for hybrid quantum-classical systems. It supports ultra-low latency links via NVIDIA NVQLink and OPNIC. Partners emphasize its role in scaling error-corrected quantum computing. Demonstrations occur at the APS Summit in Denver.
In 2022, quantum computing transitioned from speculative hype to pressing operational risks, forcing organizations to address immediate challenges in security, hardware, software, policy, fragile supply chains, and workforce shortages. Post-quantum cryptography advanced from theory to active planning and procurement, as delays now posed tangible security and compliance threats, while overhyped hybrid quantum-classical systems faced increased skepticism. Ultimately, the year highlighted that quantum adoption will hinge far more on mastering today’s engineering, infrastructure, and execution risks than on awaiting major theoretical breakthroughs.
The third quarter of 2018 reflected growing practical preparedness in quantum computing, as post-quantum cryptography moved into commercial partnerships and national strategies gained funding and legislative traction. Hardware progress in simulation and photonics continued, while quantum communication reached new performance records. Although fault-tolerant, large-scale systems were still years away, the period showed the ecosystem actively building the security, policy, and application foundations needed for future quantum advantage.
Rail Vision to acquire 51% of Quantum Transportation, securing exclusive quantum error-correction IP from Tel Aviv University for next-gen railway safety — all for just ~4.99% dilution.
Israel’s National Digital Agency highlights a quantum-based cybersecurity concern. D-Wave organizes Qubits 2025 to examine practical computing use. Updates from Kipu Quantum, the University of Oklahoma, and SEALSQ broaden the technology’s reach in optimization and accessible cloud offerings.