<p>The pursuit of fusion energy is gaining momentum, driven by factors including advances in high-performance computing. As the need for sustainable energy solutions grows ever more urgent, supercomputing emerges as a key enabler, accelerating fusion power toward practical realization. Supercomputers empower researchers to simulate complex plasma dynamics with remarkable precision, aiding in the prediction and optimization of plasma confinement and stability — both essential for sustaining burning plasmas. They also have a critical role in assessing the resilience of materials exposed to the extreme conditions of future fusion power plants. As the fusion community transitions from laboratory experiments to pilot plants, supercomputing bridges the gap between scientific discovery and engineering implementation, and it promises to reduce costs and shorten development timelines.</p>

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Accelerating fusion research via supercomputing

  • Frank Jenko

摘要

The pursuit of fusion energy is gaining momentum, driven by factors including advances in high-performance computing. As the need for sustainable energy solutions grows ever more urgent, supercomputing emerges as a key enabler, accelerating fusion power toward practical realization. Supercomputers empower researchers to simulate complex plasma dynamics with remarkable precision, aiding in the prediction and optimization of plasma confinement and stability — both essential for sustaining burning plasmas. They also have a critical role in assessing the resilience of materials exposed to the extreme conditions of future fusion power plants. As the fusion community transitions from laboratory experiments to pilot plants, supercomputing bridges the gap between scientific discovery and engineering implementation, and it promises to reduce costs and shorten development timelines.