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Fusion Science and Technology
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NRC looks to leverage previous approvals for large LWRs
During this time of resurging interest in nuclear power, many conversations have centered on one fundamental problem: Electricity is needed now, but nuclear projects (in recent decades) have taken many years to get permitted and built.
In the past few years, a bevy of new strategies have been pursued to fix this problem. Workforce programs that seek to laterally transition skilled people from other industries, plans to reuse the transmission infrastructure at shuttered coal sites, efforts to restart plants like Palisades or Duane Arnold, new reactor designs that build on the legacy of research done in the early days of atomic power—all of these plans share a common throughline: leveraging work already done instead of starting over from square one to get new plants designed and built.
Stanley M. Kaye, Masayuki Ono, Yueng-Kay Martin Peng, Donald B. Batchelor, Mark D. Carter, Wonho Choe, Robert Goldston, Yong-Seok Hwang, E. Fred Jaeger, Thomas R. Jarboe, Stephen Jardin, David Johnson, Robert Kaita, Charles Kessel, Henry Kugel, Rajesh Maingi, Richard Majeski, Janhardan Manickam, Jonathan Menard, David R. Mikkelsen, David J. Orvis, Brian A. Nelson, Franco Paoletti, Neil Pomphrey, Gregory Rewoldt, Steven Sabbagh, Dennis J. Strickler, Edmund Synakowski, James R. Wilson
Fusion Science and Technology | Volume 36 | Number 1 | July 1999 | Pages 16-37
Technical Paper | doi.org/10.13182/FST99-A88
Articles are hosted by Taylor and Francis Online.
The mission of the National Spherical Torus Experiment (NSTX) is to prove the principles of spherical torus physics by producing high-t plasmas that are noninductively sustained and whose current profiles are in steady state. The NSTX will be one of the first ultralow-aspect-ratio tori (R/a 1.3) to operate at high power (Pinput up to 11 MW) to produce high-t (25 to 40%), low-collisionality, high-bootstrap-fraction (70%) discharges. Both radio-frequency and neutral beam heating and current drive will be employed. Built into the NSTX is sufficient configurational flexibility to study a range of operating space and the resulting dependences of the confinement, micro- and magnetohydrodynamic stability, and particle- and power-handling properties. NSTX research will be carried out by a nationally based science team.
