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Penfield and Enos: Outage planning in the COVID-19 era
Penfield
Enos
Energy Harbor’s Beaver Valley plant, located about 34 miles northwest of Pittsburgh, Pa., was one of many nuclear sites preparing for a scheduled outage as the coronavirus pandemic intensified in March. The baseline objective of any planned outage—to complete refueling on time and get back to producing power—was complicated by the need to prevent the transmission of COVID-19.
While over 200 of the plant’s 850 staff members worked from home to support the outage, about 800 contractors were brought in for jobs that could only be done on-site. Nuclear News Staff Writer Susan Gallier talked with Beaver Valley Site Vice President Rod Penfield and General Plant Manager Matt Enos about the planning and communication required.
Beaver Valley can look forward to several more outages in the future, now that plans to shut down the two Westinghouse pressurized water reactors, each rated at about 960 MWe, were reversed in March. “The deactivation announcement happened in the middle of all our planning,” Enos said. “It’s a shame we haven’t had a chance to get together as a large group and celebrate that yet.”
While the focus remains on safe pandemic operations, the site now has two causes for celebration: an outage success and a long future ahead.
J.A. Fillo, J.R. Powell, R. Benenati, F. Malick
Fusion Science and Technology | Volume 4 | Number 2 | September 1983 | Pages 184-188
Hybrids and Nonelectric Applications | dx.doi.org/10.13182/FST83-A22865
Articles are hosted by Taylor and Francis Online.
The HYFIRE studies have investigated a number of technical approaches for using the thermal energy produced in a high-temperature Tokamak blanket to provide the electrical and thermal energy required to drive a high-temperature (>1000°C) water electyrolysis process. Current emphasis has been on two design points, one consistent with a peak electrolyzer temperature of ∼1150°C (based on current laboratory experience with high-temperature, solid electrolyte fuel cells), and a second, consistent with a peak electrolyzer temperature of ∼1300°C, which is an extrapolation of present experience. The technical integration of fusion and high-temperature electrolysis appears feasible.
