Heterogeneous Quantum-Classical Workflow Computes Tritium Binding in FLiBe Molten Salts
A research collaboration between Oak Ridge National Laboratory (ORNL), the Cleveland Clinic, and IBM Quantum has completed the first heterogeneous quantum-classical simulation of tritium binding within a liquid inorganic molten salt. Released as a preprint on arXiv by a team including ORNL Section Head Tom Beck, Corporate Research Fellow Al Geist, and Cleveland Clinic staff [...] The post Heterogeneous Quantum-Classical Workflow Computes Tritium Binding in FLiBe Molten Salts appeared first on Quantum Computing Report .
The accelerating development in both quantum computing and materials science is enabling novel computational approaches for complex atomic interactions, exemplified by this collaboration.
This development showcases a practical application of quantum-classical computing to solve specific, challenging problems relevant to advanced energy systems, particularly nuclear fusion research.
The ability to simulate complex molecular interactions like tritium binding in molten salts using heterogeneous quantum-classical workflows provides a new tool for materials design and nuclear energy development.
- · Quantum Computing Providers
- · Nuclear Fusion Research
- · Materials Science Researchers
- · Departments of Energy
- · Traditional Simulation Methods (for certain niche problems)
Improved understanding and design of materials for advanced nuclear reactors.
Accelerated development of fusion energy technologies by overcoming materials challenges.
Potential for quantum-classical workflows to become standard for materials discovery across various industries.
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