NVIDIA has taken a leading role in the emerging field of hybrid quantum-classical computing, a sector that is quickly advancing and holds promise for both scientific discovery and national defense. During the GTC conference in October 2025, CEO Jensen Huang introduced
NVQLink
, a new framework built to connect quantum processors with traditional supercomputers, representing a significant move toward practical, large-scale quantum computing. Collaborating with companies such as Alice & Bob, Quantinuum, and IonQ, the initiative focuses on stabilizing qubits and implementing error correction—key challenges for real-world quantum use. Huang highlighted that by directly linking quantum chips to GPU-powered supercomputers, NVQLink’s hybrid model would speed up progress in AI, simulations, and optimization.
NVIDIA’s commitment is further demonstrated by the launch of two AI-optimized supercomputers, Solstice and Equinox, at Argonne National Laboratory. These machines, featuring 100,000 and 10,000 Blackwell GPUs respectively, are expected to be operational by mid-2026, according to NextGov. Huang described this project as vital for maintaining U.S. leadership in science, echoing Energy Secretary Chris Wright’s mission to strengthen domestic innovation. "Computing is the essential tool of science," Huang remarked, underlining the revolutionary impact of GPU-driven supercomputers.
Other companies in the quantum sector are also adopting NVQLink to push forward hybrid computing.
ORCA Computing
, a pioneer in photonic quantum technology, revealed it is incorporating NVQLink into its PT-Series platform, allowing GPUs and quantum processors to interact in real time for machine learning and optimization. Likewise,
Qblox
, a quantum control specialist from the Netherlands, has teamed up with
NVIDIA
to address the precise timing requirements needed for effective quantum-classical coordination, a crucial step for building robust, scalable quantum systems.
Alice & Bob
, known for its work in fault-tolerant quantum computing, commended NVQLink for tackling essential aspects of quantum management, such as adaptive calibration and real-time decoding.
At the same time,
IBM's breakthrough
in quantum error correction has attracted attention for its potential to simplify and lower the cost of scaling quantum computers. By executing error-correction routines on conventional AMD processors, IBM is aiming to deliver a fault-tolerant quantum system by 2029—a goal that could transform the industry. The partnership with AMD has already led to an 8% rise in IBM’s stock price, signaling investor optimism about its future direction.
Despite these achievements, specialists warn that the disruptive impact of quantum computing is still several years away. The process of merging quantum and classical technologies is just beginning. Mourad Beji from Pasqal described NVQLink as a "major step" toward practical quantum computing but pointed out that widespread use will depend on overcoming significant technical and financial challenges, as reported by NextGov. Similarly, IBM’s projection of 2029 for fault-tolerant quantum systems highlights the lengthy development timeline required for these technologies to mature.
The global consequences of these developments are also profound. As the U.S. and China vie for dominance in quantum technology, government measures such as export controls and investment screening are influencing the industry’s path. A recent piece in
War on the Rocks
suggested that clarifying export policies and simplifying investment reviews for allied countries could help the U.S. advance its quantum leadership while protecting sensitive innovations.
Although quantum computing poses a potential risk to
Bitcoin
and other encryption-based systems, Alex Gladstone of Borderless Capital recently emphasized that quantum computers capable of breaking current cryptography are still years away. "The hybrid systems under development now are foundational, but not yet at the scale to threaten Bitcoin’s security," Gladstone said, echoing the industry’s focus on immediate applications in scientific research and business optimization rather than cryptographic threats.