Code Validation and Study on High Burnup Fission Gas Release Behaviors

Ren Qisen; Liao Yehong; Chen Mengteng; Zhang Yongdong; Xie Yiran; Liu Tong

Volume 40 Issue 5

Oct. 2019

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Article Navigation > Nuclear Power Engineering > 2019 > 40(5): 92-96

Ren Qisen, Liao Yehong, Chen Mengteng, Zhang Yongdong, Xie Yiran, Liu Tong. Code Validation and Study on High Burnup Fission Gas Release Behaviors[J]. Nuclear Power Engineering, 2019, 40(5): 92-96.

Citation:

Ren Qisen, Liao Yehong, Chen Mengteng, Zhang Yongdong, Xie Yiran, Liu Tong. Code Validation and Study on High Burnup Fission Gas Release Behaviors[J]. Nuclear Power Engineering, 2019, 40(5): 92-96.

Ren Qisen, Liao Yehong, Chen Mengteng, Zhang Yongdong, Xie Yiran, Liu Tong. Code Validation and Study on High Burnup Fission Gas Release Behaviors[J]. Nuclear Power Engineering, 2019, 40(5): 92-96.

Citation:

Ren Qisen, Liao Yehong, Chen Mengteng, Zhang Yongdong, Xie Yiran, Liu Tong. Code Validation and Study on High Burnup Fission Gas Release Behaviors[J]. Nuclear Power Engineering, 2019, 40(5): 92-96.

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Code Validation and Study on High Burnup Fission Gas Release Behaviors

Publish Date: 2019-10-15

Abstract

Abstract

Calculations and analyses of Halden IFA519.9 DK fuel rod irradiation test were carried out using the fuel performance code COPERNIC. Investigations on the high burnup fission gas release behaviors were implemented. Comparison between predictions and experimental results were performed. The results indicate that, during high burnup to ~100 GW?d/t(U) irradiation, the code predictions show good agreement with experimental data in terms of fission gas release. The code does not particularly model the evolution of fuel porosity within high burnup rim structure, however, the accuracy and rationality on fuel rod integrated performance analysis would not be affected.
- Fuel rod,
- Fission gas release,
- Halden reactor project,
- High burnup

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