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Traditional fusion reactors worldwide are facing major physical and engineering bottlenecks, including cumulative plasma turbulence, thermal shock damage at the chamber boundaries, and immense power overheads driven by massive magnetic systems and complex cooling structures. This paper introduces SCA-Fusion, a paradigm-shifting plasma confinement architecture that breaks away from conventional conventions through Continuous Field Dynamics and Virtual Potential Barriers, replacing high-field brute-force magnetic confinement. The system utilizes dynamic wavefront phase control to establish self-balancing plasma pressure, mitigating boundary leakage and dramatically downsizing the reactor footprint. High-resolution numerical simulations on a 14,400-node grid confirm system stability, achieving a Mean Confinement Stability Index of 457.18 under controlled dynamic boundaries. Furthermore, this work establishes a new benchmark by publishing core conceptual structures as Defensive Prior Art on the Zenodo platform, securing global priority of invention while strictly safeguarding proprietary trade secrets and advanced algorithms for commercial partners.
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Bhattharawut Bhoomarat (2026) studied this question.
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