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Quality is key: Investing in advanced nuclear research for tomorrow’s grid
As the energy sector faces mounting pressure to grow at an unprecedented pace while maintaining reliability and affordability, nuclear technology remains an essential component of the long-term solution. Southern Company stands out among U.S. utilities for its proactive role in shaping these next-generation systems—not just as a future customer, but as a hands-on innovator.
D.L. Sevier, E.E. Reis, C.B. Baxi, G.W. Silke, D.N. Hill, C.P.C. Wong
Fusion Science and Technology | Volume 30 | Number 3 | December 1996 | Pages 720-729
Divertor Design and Experiments | doi.org/10.13182/FST96-A11963021
Articles are hosted by Taylor and Francis Online.
As fusion experiments progress towards long pulse or steady state operation, plasma facing components are undergoing a significant change in their design. This change represents the transition from inertially cooled pulsed systems to steady state designs of significant power handling capacity. A limited number of Plasma Facing Component (PFC) systems are in operation or planning to address this steady state challenge at low heat flux. However in most divertor designs components are required to operate at heat fluxes of 5 MW/m2 or above. The need for data in this area has resulted in a significant amount of thermal/hydraulic and thermal fatigue testing being done on prototypical elements. Short pulse design solutions are not adequate for longer pulse experiments and the areas of thermal design, structural design, material selection, maintainability, and lifetime prediction are undergoing significant changes. A prudent engineering approach will guide us through the transitional phase of divertor design to steady-state power plant components.
This paper reviews the design implications in this transition to steady state machines and the status of the community efforts to meet evolving design requirements.