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Curio to begin early talks with NRC on licensing NuCycle recycling facility
Washington, D.C.-based Curio announced yesterday that it has submitted a letter of intent to the Nuclear Regulatory Commission to establish a docket for preapplication engagement activities and ultimately the submittal and review of a license application to operate a spent nuclear fuel recycling production facility.
Once a docket is established, Curio will develop a license application to meet all applicable regulations for a nuclear fuel recycling facility under 10 CFR Part 70.
Richard Simms, Gerald E. Marsh, Alan B. Rothman, George S. Stanford
Nuclear Technology | Volume 52 | Number 3 | March 1981 | Pages 331-341
Technical Paper | Fission Reactor | doi.org/10.13182/NT81-A32707
Articles are hosted by Taylor and Francis Online.
In Transient Reactor Test Facility tests L6 and L7, a loss-of-flow accident sequence was simulated using three fuel elements containing (Pu, U)O2. The test fuel had been previously irradiated at 36 kW/m in a thermal-neutron spectrum in the General Electric Test Reactor to 3 at.% burnup. Fuel dispersal rates at 10 and 20 times nominal power were measured using the 1.2-m fast neutron hodoscope. The measured axial fuel density variations were weighted with typical liquid-metal fast breeder reactor fuel-worth distributions so that the significance of the fuel motion could be assessed. Fuel dispersal rates equivalent to 60¢/s per dollar were observed in test L7. The dispersal rate for test L6 was ∼20¢/s per dollar. The dispersive fuel motion in test L7 could have been augmented by fuel vapor pressures. The experimental fuel-worth changes were also compared with the fuel-worth changes computed by fuel motion models SLUMPY and LEVITATE. Of the two models, LEVITATE provided better agreement with the equivalent fuel-worth changes in test L7.