• NUCLEAR TECHNIQUES
  • Vol. 46, Issue 12, 120604 (2023)
Wenjie CHEN, Xianan DU*, Rong WANG, Youqi ZHENG, Yongping WANG, and Hongchun WU
Author Affiliations
  • School of Nuclear Science and Technology, Xi'an Jiaotong University, Xi'an 710049, China
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    DOI: 10.11889/j.0253-3219.2023.hjs.46.120604 Cite this Article
    Wenjie CHEN, Xianan DU, Rong WANG, Youqi ZHENG, Yongping WANG, Hongchun WU. Applicability and validation of TULIP code based on fast spectrum benchmarks[J]. NUCLEAR TECHNIQUES, 2023, 46(12): 120604 Copy Citation Text show less
    Preliminary calculation results of ICSBEP benchmarks: HEU, IEU and U-233
    Fig. 1. Preliminary calculation results of ICSBEP benchmarks: HEU, IEU and U-233
    Preliminary calculation results of ICSBEP benchmarks: MIX, Pu and SPEC
    Fig. 2. Preliminary calculation results of ICSBEP benchmarks: MIX, Pu and SPEC
    Proportion of major intermediate-weight nuclides in the benchmark
    Fig. 3. Proportion of major intermediate-weight nuclides in the benchmark
    Geometrical model of the HMF021-002 benchmark
    Fig. 4. Geometrical model of the HMF021-002 benchmark
    Normalization neutron flux
    Fig. 5. Normalization neutron flux
    U-235 microscopic total cross section
    Fig. 6. U-235 microscopic total cross section
    Fe-56 Microscopic scattering cross section
    Fig. 7. Fe-56 Microscopic scattering cross section
    Fe-56 microscopic capture cross section
    Fig. 8. Fe-56 microscopic capture cross section
    Microscopic total cross section of intermediate-weight nuclides
    Fig. 9. Microscopic total cross section of intermediate-weight nuclides
    Normalization neutron flux
    Fig. 10. Normalization neutron flux
    U-235 microscopic total cross section
    Fig. 11. U-235 microscopic total cross section
    Fe-56 microscopic scattering section
    Fig. 12. Fe-56 microscopic scattering section
    Calculation results of ICSBEP benchmarks: HEU, IEU, and U-233
    Fig. 13. Calculation results of ICSBEP benchmarks: HEU, IEU, and U-233
    Calculation results of ICSBEP benchmarks: MIX, Pu, and SPEC
    Fig. 14. Calculation results of ICSBEP benchmarks: MIX, Pu, and SPEC
    Statistical deviations for the calculation results of ICSBEP benchmarks
    Fig. 15. Statistical deviations for the calculation results of ICSBEP benchmarks

    燃料类型

    Fuel type

    数量

    Number

    几何

    Geometry

    能谱

    Spectrum

    HEU53圆球Sphere快谱Fast
    IEU10圆球Sphere快谱Fast
    U-23310圆球Sphere快谱Fast
    MIX29圆球Sphere快谱Fast
    Pu35圆球Sphere快谱Fast
    SPEC10圆球Sphere快谱Fast
    Table 1. Selection of ICSBEP experimental device
    基准题BenchmarkTULIP keffMCNP keffΔkeff / 10-2
    HMF-003-0120.993 801.008 44-1.464
    HMF-021-0010.986 280.997 43-1.115
    HMF-021-0020.986 480.997 58-1.110
    IMF-005-0010.993 051.001 89-0.884
    IMF-005-0020.992 941.001 76-0.882
    PMF-025-0010.993 660.998 82-0.516
    PMF-025-0020.993 690.998 85-0.516
    PMF-026-0010.984 290.998 60-1.431
    PMF-026-0020.984 340.998 59-1.425
    PMF-028-0010.982 990.998 65-1.566
    PMF-028-0020.982 910.998 54-1.563
    PMF-032-0010.988 210.998 63-1.042
    PMF-032-0020.988 280.99869-1.041
    Table 2. Benchmarks with large keff deviations
    燃料区Fuel region反射层1 Reflector 1反射层2 Reflector 2
    核素Nuclide核子密度Density核素Nuclide核子密度Density核素Nuclide核子密度Density
    U-2345.208 70×10-4Fe-544.641 90×10-3Fe-544.620 20×10-3
    U-2354.202 30×10-2Fe-567.286 80×10-2Fe-567.252 70×10-2
    U-2384.361 30×10-3Fe-571.682 90×10-3Fe-571.675 00×10-3
    W-1821.454 40×10-5Fe-582.239 60×10-4Fe-582.229 10×10-4
    W-1837.861 10×10-6C-121.126 90×10-3C-121.121 70×10-3
    W-1841.690 00×10-5Si-281.481 60×10-4Si-281.474 60×10-4
    W-1861.574 40×10-5Si-297.526 50×10-6Si-297.491 30×10-6
    Fe-541.136 00×10-5Si-304.967 30×10-6Si-304.944 10×10-6
    Fe-561.783 20×10-4Cr-501.131 10×10-5Cr-501.125 80×10-5
    Fe-574.118 30×10-6Cr-522.181 20×10-4Cr-522.171 00×10-4
    Fe-585.481 00×10-7Cr-532.473 30×10-5Cr-532.461 70×10-5
    C-121.091 90×10-3Cr-546.156 60×10-6Cr-546.127 70×10-6
    Mn-553.285 10×10-4Mn-553.269 70×10-4
    Ni-581.570 10×10-4Ni-581.562 70×10-4
    Ni-606.047 80×10-5Ni-606.019 50×10-5
    Ni-612.629 00×10-6Ni-612.616 60×10-6
    Ni-628.382 20×10-6Ni-628.343 00×10-6
    Ni-642.134 70×10-6Ni-642.124 70×10-6
    Cu-631.473 00×10-4Cu-631.466 10×10-4
    Cu-656.571 40×10-5Cu-656.540 50×10-5
    Table 3. Material data for the HMF021-002 Benchmark

    核素名称

    Nuclide

    核子密度

    Density

    比例

    Proportion / %

    U-2353.517 62×10-35.02
    Fe-566.652 08×10-294.98
    Table 4. Material data for the homogeneous two-nuclide problem
    核素Nuclide能量上限Maximum energy / eV
    可分辨共振Resolved resonance不可分辨共振区Unresolved resonance
    Na-235.00×105
    Ti-483.00×105
    V-511.00×105
    Cr-529.80×105
    Mn-551.00×105
    Fe-568.50×105
    Co-591.00×105
    Ni-588.12×105
    Cu-639.95×104
    Zn-641.00×105
    Zr-906.00×104
    U-2352.25×1032.50×104
    U-2382.00×1041.49×105
    Pu-2392.50×1033.00×104
    Pu-2413.00×1024.02×104
    Table 5. Energy division of common nuclides in fast reactors
    基准题BenchmarkTULIP keffMCNP keffΔkeff / 10-5
    HMF-003-0121.005 151.008 44-329
    HMF-021-0010.994 370.997 43-306
    HMF-021-0020.994 550.997 58-303
    IMF-005-0010.998 681.001 89-321
    IMF-005-0020.998 591.001 76-317
    PMF-025-0010.997 270.998 82-155
    PMF-025-0020.997 300.998 85-155
    PMF-026-0010.996 230.998 60-237
    PMF-026-0020.996 280.998 59-231
    PMF-028-0010.995 840.998 65-281
    PMF-028-0020.995 780.998 54-276
    PMF-032-0010.996 250.998 63-238
    PMF-032-0020.996 320.998 69-237
    Table 6. Calculation results of benchmarks with high intermediate-weight nuclide loading
    Wenjie CHEN, Xianan DU, Rong WANG, Youqi ZHENG, Yongping WANG, Hongchun WU. Applicability and validation of TULIP code based on fast spectrum benchmarks[J]. NUCLEAR TECHNIQUES, 2023, 46(12): 120604
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