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DOE, INL, Kairos talk nuclear energy at Senate committee hearing
It has been 10 months since President Trump signed several executive orders that have reshaped the nuclear energy industry and set lofty goals for initiatives like the development and deployment of new nuclear technology.
One such initiative, the DOE’s Nuclear Reactor Pilot Program, calls for at least 3 of the 11 reactors in the program to achieve criticality by July 4, 2026. Some have questioned whether this target is feasible.
Frank H. Ruddy, Abdul R. Dulloo, John G. Seidel, Frederick W. Hantz, Louis R. Grobmyer
Nuclear Technology | Volume 140 | Number 2 | November 2002 | Pages 198-208
Technical Paper | Nuclear Plant Instrumentation, Control, and Human-Machine Interface Technologies | doi.org/10.13182/NT02-A3333
Articles are hosted by Taylor and Francis Online.
Silicon carbide semiconductor neutron detectors are being developed for use as ex-vessel power monitors for pressurized water reactors. Key features such as neutron response, radiation resistance, and high-temperature operation have been explored for silicon carbide detectors, and the results are consistent with their use in the ex-vessel environment. Prototype silicon carbide ex-core neutron detectors have been assembled and tested under research reactor conditions simulating ex-core neutron monitoring requirements. Linear, pulse-mode operation without the need for gamma compensation has been demonstrated with these prototype detectors. The silicon carbide detectors are compared to presently deployed gas-filled ex-vessel detectors, and several advantages of the silicon carbide technology can be seen. It is anticipated that a wide-range silicon carbide neutron detector can be designed to replace the combined functions of the multiple power range detectors in use. Furthermore, the need for gamma-ray compensation will be eliminated, and more efficient reactor operation and simplified reactor operating procedures will result.