Neutronics design and analysis of water-cooled energy production blanket for a fusion-fission hybrid reactor
Jieqiong Jiang, Zhong Chen, Jinchao Liu, Fds Team
Abstract
Jieqiong Jiang, Zhong Chen, Jinchao Liu, Fds Team
Abstract
Neutronics calculations were performed to analysis the parameters of blanket energy multiplication factor(M) and tritium breeding ratio(TBR) in a fusion-fission hybrid reactor for energy production named FDS-EM(Energy Multiplier) blanket.The most significant and main goal of the water-cooled FDS-EM blanket is to achieve the energy gain of about 1 GW with self-sustaining tritium,which can operate for as long as possible without fuel unloading and reloading.The preliminarily designed neutronics parameters for FDS-EM were presented,which show that the blanket loaded with the Nuclear Waste(transuranic from 33 000 MWD/MTU PWR and depleted uranium) for energy multiplication(M≈90) with tritium self-sufficiency can operate for at least 10 years without fuel unloading and reloading.
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Neutronics calculations were performed to analysis the parameters of blanket energy multiplication factor(M) and tritium breeding ratio(TBR) in a fusion-fission hybrid reactor for energy production named FDS-EM(Energy Multiplier) blanket.The most significant and main goal of the water-cooled FDS-EM blanket is to achieve the energy gain of about 1 GW with self-sustaining tritium,which can operate for as long as possible without fuel unloading and reloading.The preliminarily designed neutronics parameters for FDS-EM were presented,which show that the blanket loaded with the Nuclear Waste(transuranic from 33 000 MWD/MTU PWR and depleted uranium) for energy multiplication(M≈90) with tritium self-sufficiency can operate for at least 10 years without fuel unloading and reloading.
Key concepts: Blanket, Neutron transport, Nuclear engineering, Hybrid reactor, Fusion power, Tritium, Environmental science, Fission