Forced propagation method for Monte Carlo fission source convergence acceleration in the RMC

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作者
Ze-Guang Li
Kan Wang
Yu-Chuan Guo
Xiao-Yu Guo
机构
[1] Tsinghua University,Institute of Nuclear and New Energy Technology
[2] Tsinghua University,Department of Engineering Physics
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关键词
Fission source convergence acceleration; Monte Carlo method; Forced propagation method; RMC code;
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摘要
In loosely coupled or large-scale problems with high dominance ratios, slow fission source convergence can take extremely long time, reducing Monte Carlo (MC) criticality calculation efficiency. Although various acceleration methods have been developed, some methods cannot reduce convergence times, whereas others have been limited to specific problem geometries. In this study, a new fission source convergence acceleration (FSCA) method, the forced propagation (FP) method, has been proposed, which forces the fission source to propagate and accelerate fission source convergence. Additionally, some stabilization techniques have been designed to render the method more practical. The resulting stabilized method was then successfully implemented in the MC transport code, and its feasibility and effectiveness were tested using the modified OECD/NEA, one-dimensional slab benchmark, and the Hoogenboom full-core problem. The comparison results showed that the FP method was able to achieve efficient FSCA.
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