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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.
J.K. Garner, C.F. Carson, J.D. Gordon, R.H. Whitley
Fusion Science and Technology | Volume 10 | Number 3 | November 1986 | Pages 615-618
Blanket Design and Evaluation | Proceedings of the Seveth Topical Meeting on the Technology of Fusion Energy (Reno, Nevada, June 15–19, 1986) | doi.org/10.13182/FST86-A24811
Articles are hosted by Taylor and Francis Online.
This paper describes a concept for a high performance, inherently safe fusion reactor blanket using helium coolant, beryllium multiplier, lithium breeder and a vanadium alloy structure. The goals of the design were to explore the possibility of inherent tolerance to loss of coolant and flow accidents while minimizing the cost of electricity. Results indicate high net thermal-to-electric conversion efficiency (45.5%), good energy multiplication (1.64) and excellent afterheat tolerance, with a maximum blanket temperature of 760°C after one year with no cooling. However, the calculated COE (0.0405$/kWe.h) is slightly higher than other blankets costed on a similar basis by the MINIMARS1 program because of the projected high cost of vanadium.