Australia and Japan Launch Quantum-Supercomputing Hybrid Alliance
CSIRO and AIST integrate the ABCI-Q platform with Pawsey’s HPC expertise to accelerate industrial quantum applications.
Australia and Japan have launched a strategic partnership to merge quantum computing with high-performance supercomputing, aiming to accelerate scientific discovery and bridge the gap between theoretical research and industrial application.
On January 22, 2026, Australia's CSIRO, acting on behalf of the Pawsey Supercomputing Research Centre in Perth, signed a Letter of Intent with Japan's National Institute of Advanced Industrial Science and Technology (AIST). The collaboration specifically links AIST's Global Research and Development Center for Business by Quantum-AI technology (G-QuAT) with the Pawsey centre. Running until March 4, 2027, the partnership will combine the ABCI-Q platform with Pawsey's high-performance computing (HPC) expertise. Key cooperation areas include joint projects on quantum-supercomputing hybrid power, the development of an international quantum ecosystem, and knowledge exchange through symposiums and seminars.
This alliance coincides with the 50th anniversary of the Basic Treaty of Friendship and Cooperation between Australia and Japan, evolving a long-standing history of science and technology cooperation. By shifting focus toward real-world applications, the partnership targets critical advancements in materials development, drug discovery, and national security.
Merging quantum computing with the massive scale of HPC allows both nations to bypass current hardware limitations that often stall quantum progress. This integration creates a "national computational fabric" spanning AI, HPC, and quantum technology, making hybrid computing more accessible and impactful. This strategic alignment strengthens the Indo-Pacific tech ecosystem and accelerates the transition toward commercial deployment.
Observers will now watch for the first joint projects emerging from the ABCI-Q and Pawsey integration. The success of this hybrid approach will likely determine how quickly quantum-ready computational futures can be realized for industrial use. While the current agreement is set through early 2027, the resulting framework may serve as a blueprint for further international quantum collaborations.