The research will combine Quantinuum<\/a>\u2019s Helios quantum computer and software tools with GE<\/a> Vernova\u2019s materials expertise to investigate interacting electrons using the simplified Fermi\u2013Hubbard model.<\/p>\n Better understanding of superconductivity could inform the development of smaller electrical equipment and higher-capacity power infrastructure, though cooling, manufacturing, material performance and cost remain barriers.<\/p>\n PRESS RELEASE \u2014 Quantinuum<\/a> and GE<\/a> Vernova\u2019s Advanced Research Center are launching a collaboration to apply quantum computing to one of the research community\u2019s most consequential challenges: understanding the behavior behind high-temperature superconductivity. Advances in this field could, over the long term, transform the energy sector by enabling lighter generators, more compact and powerful motors, and electricity infrastructure that carries more power and better withstands faults.<\/p>\n The research will focus on Fermi\u2013Hubbard modeling, a framework for studying how interacting electrons give rise to complex material properties. By combining Quantinuum<\/a>\u2019s full-stack quantum computing capabilities\u2014including access to the company\u2019s Helios computer\u2014with GE<\/a> Vernova\u2019s expertise in material science and engineering simulation applied to industrial applications, the collaboration will bring an industry perspective to a promising area of quantum research.<\/p>\n Why superconductors matter for energy<\/p>\n As energy systems grow, the size, weight, and performance of electrical equipment become increasingly important constraints. High-temperature superconductors offer potential ways to address those limits through their ability to carry large electrical currents without resistance under suitable operating conditions.<\/p>\n Potential applications span power generation, electricity grids, and industrial electrification. Superconducting generators could reduce the weight and footprint of industrial equipment. Superconducting windings could also help make utility generators and industrial or marine propulsion motors more compact and efficient. In electricity networks, superconducting cables could carry more power through constrained spaces, while fault current limiters could help protect equipment during short circuits.<\/p>\n Realizing those benefits more widely depends on overcoming challenges in cooling, material performance, manufacturing, and cost. Better understanding of the physics behind high-temperature superconductivity could help inform the search for materials with more practical operating characteristics.<\/p>\n Why quantum computing may offer new tools for understanding high-temperature superconductivity<\/p>\n High-temperature superconductivity involves the collective behavior of strongly interacting electrons. Accurately modeling these systems is exceptionally difficult: the interactions that make them scientifically interesting also make important aspects of their behavior computationally challenging.<\/p>\n The Fermi\u2013Hubbard model captures essential features of those interactions in a simplified mathematical framework. Although it is not a complete description of a material used in \u00a0industrial applications, it provides a foundation for investigating mechanisms associated with high-temperature superconductivity.<\/p>\n Quantum computing offers a promising way to explore the physics. Quantinuum<\/a> researchers have already measured superconducting pairing correlations\u2014including s-wave and d-wave pairing\u2014in Fermi\u2013Hubbard models simulated on the Helios quantum computer. These results demonstrate the ability to prepare and probe quantum states relevant to superconductivity research, establishing a foundation for further investigation.<\/p>\n The collaboration with GE<\/a> Vernova will build on that foundation, bringing industrial expertise to the selection and interpretation of research questions.<\/p>\n Connecting quantum capabilities with industrial expertise<\/p>\n The research will be enabled through access to Quantinuum<\/a>\u2019s full-stack capabilities, including cloud-based access to Helios, the world\u2019s most accurate quantum computer[1]<\/a>, and Nexus, Quantinuum\u2019s developer platform. Nexus connects quantum hardware with the software tools researchers need to develop and run applications in a unified environment.<\/p>\n GE<\/a> Vernova\u2019s Advanced Research Center brings the expertise in material science,\u00a0 engineering, and industrial applications to the research and development activity.\u00a0<\/p>\n \u201cHigh-temperature superconductors could help us overcome important limits on the size, weight, and efficiency of electrical equipment, but understanding and improving these materials remains a significant scientific challenge,\u201d said Jonathan Owens, PhD, Senior Scientist, Computational Materials Physics at GE<\/a> Vernova. \u201cBy combining our materials simulation and industrial expertise with Quantinuum<\/a>\u2019s quantum computing capabilities, we can explore new approaches to these difficult problems while building the expertise to assess where quantum computing can make a meaningful contribution.\u201d<\/p>\n The collaboration also extends GE<\/a> Vernova\u2019s exploration of quantum computing into a new area of materials research while supporting the development of its internal quantum talent. Its previous published work<\/a> includes investigations of quantum algorithms for carbon-capture materials using simulated quantum processors.<\/p>\n Building toward industrial value<\/p>\n Translating insights from simplified models into practical materials requires sustained scientific and engineering work. Industrial expertise helps connect that effort to the properties, operating conditions, and manufacturing considerations that ultimately determine a material\u2019s usefulness.<\/p>\n![\"Introducing](\"https:\/\/www.newsbeep.com\/us\/wp-content\/uploads\/2026\/10\/1793117891_39_Option-1-1-1.png\")
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