IBM Unveils 120-Qubit Quantum System Two at UChicago, Backing Illinois Research and Jobs
Updated
Updated · UChicago News · Nov 6
IBM Unveils 120-Qubit Quantum System Two at UChicago, Backing Illinois Research and Jobs
3 articles · Updated · UChicago News · Nov 6
Summary
IBM switched on its most advanced quantum computer at the University of Chicago’s Hyde Park Labs, marking the company’s first quantum system in Illinois.
The Quantum System Two runs on IBM’s Nighthawk chip, which links 120 qubits through 218 tunable couplers to handle more complex circuits while keeping error rates low.
UChicago will host the machine before it moves to the Illinois Quantum and Microelectronics Park, and researchers, startups and companies will use it through the National Quantum Algorithm Center for work including drug discovery and power-grid optimization.
IBM tied the launch to a broader Illinois buildout that already includes a 10-year, $100 million quantum initiative with UChicago and the University of Tokyo and a FutureNow Chicago center expected to bring 750 jobs.
Will IBM's new public-facing quantum computer actually solve real-world problems like drug discovery, or is it just a futuristic showcase?
Can Chicago's bold quantum tech investment truly transform the local economy and provide 750 high-tech jobs for the community?
Does placing a highly advanced quantum computer on a public street genuinely bridge the gap between elite science and everyday citizens?
Illinois Deploys IBM Quantum System Two: High-Throughput Quantum Computing, Workforce Growth, and Security Implications
Overview
On November 6, 2026, IBM unveiled its Quantum System Two at Hyde Park Labs in Chicago, a milestone made possible by Illinois’ major public investment of up to $700 million and targeted tax credits. This deployment anchors the National Quantum Algorithm Center and is supported by IBM’s commitment to create 750 tech jobs through its FutureNow Chicago center. At the heart of the system, IBM’s Nighthawk r2 processor uses innovative dissipative reset gadgets, slashing qubit reset times and boosting throughput 25-fold. These advances enable real-world breakthroughs, such as rapid material simulations, and drive economic transformation, workforce development, and regional leadership in quantum technology.