5 Neutron Spectrum
155
2. Shahbunder H, Pyeon CH, Misawa T et al (2010) Subcritical multiplication factor and source
efficiency in accelerator-driven system. Ann Nucl Energy 37:1214
3. Pyeon CH, Nakano H, Yamanaka M et al (2015) Neutron characteristics of solid targets in
accelerator-driven system with 100-MeV protons at Kyoto University Critical Assembly. Nucl
Technol 192:181
4. X-5 Monte Carlo team (2003) MCNP—a general Monte Carlo N-particle transport code,
version 5. LA-UR-03-1987
5. Ziegler JF, Biersack JP, Ziegler MD (1985) The stopping and range of ions in matter. Pergamon
Press, New York
6. Takada H, Kosako K, Fukahori T (2009) Validation of JENDL high-energy file through analyses
of spallation experiments at incident proton energies from 0.5 to 2.83 GeV. J Nucl Sci Technol
46:589
7. Shibata K, Iwamoto O, Nakagawa T et al (2011) JENDL-4.0: a new library for nuclear science
and engineering. J Nucl Sci Technol 48:1
8. Kobayashi K, Iguchi T, Iwasaki S et al (2002) JENDL dosimetry file 99 (JENDL/D-99). JAERI
Report 1344
9. Pyeon CH, Vu TM, Yamanaka M et al (2018) Reaction rate analyses of accelerator-driven
system experiments with 100 MeV protons at Kyoto University Critical Assembly. J Nucl Sci
Technol 55:190
10. Lim JY, Pyeon CH, Yagi T et al (2012) Subcritical multiplication parameters of the acceleratordriven system with 100 MeV protons at the Kyoto University Critical Assembly. Sci Technol
Nucl Install 395878:9
11. Goorley JT, James MR, Booth TE et al (2013) Initial MCNP6 release overview - MCNP6
version 1.0. LA-UR-13-22934
12. Pyeon CH, Takemoto Y, Yagi T et al (2012) Accuracy of reaction rates in the accelerator-driven
system with 14 MeV neutrons at the Kyoto University Critical Assembly. Ann Nucl Energy
40:229
13. Pyeon CH, Shiga H, Abe K et al (2010) Reaction rate analysis of nuclear spallation reactions
generated by 150, 190 and 235 MeV protons. J Nucl Sci Technol 47:1090
14. Ashland (2017) Gafchromic film. http://gafchromic.com/, Accessed 16 Jun 2020
15. Pyeon CH, Azuma T, Takemoto Y et al (2013) Experimental analyses of spallation neutrons
generated by 100 MeV protons at the Kyoto University Critical Assembly. Nucl Eng Technol
45:81
16. Pyeon CH, Shiga H, Misawa T et al (2009) Reaction rate analyses for an accelerator-driven
system with 14 MeV neutrons in the Kyoto University Critical Assembly. J Nucl Sci Technol
46:965
17. Verbinski VV, Burrus WR, Love TA et al (1968) Calibration of an organic scintillator for
neutron spectrometry. Nucl Instrum Methods 65:8
18. Dietzw G, Klien H (1982) Gamma-calibration of NE-213 scintillator counters. Nucl Instrum
Methods 193:549
19. Satoh D, Sato T, Shingyo N et al (2006) SCINFUL-QMD: Monte Carlo based computer code to
calculate response function and detection efficiency of a liquid organic scintillator for neutron
energies up to 3 GeV. JAEA-Data/Code, 2006-23
20. Reginatto M, Wiegel B, Zimbal A et al (2004) The UMG-code package, ver. 3.3. NEA-1665/03
21. Lemmel HD et al (2001) ENDF/B-VI release 8 (Last release for ENDF/B-VI) The U.S.
evaluated nuclear data library for neutron reaction data. IAEA-NDS-100
22. Pyeon CH, Yamanaka M, Lee B (2020) Reaction rate analyses of high-energy neutrons by
injection of 100 MeV protons onto lead-bismuth target. Ann Nucl Energy 144:107498
23. Yamanaka M, Jang KW, Shin SH et al (2019) Proton beam characteristics with wavelength
shifting fiber detector at Kyoto University Critical Assembly. Jpn J Appl Phys 58:036002
24. Sato T, Iwamoto Y, Hashimoto S et al (2018) Features of particle and heavy ion transport code
system (PHITS) version 3.02. J Nucl Sci Technol 55:684
155
2. Shahbunder H, Pyeon CH, Misawa T et al (2010) Subcritical multiplication factor and source
efficiency in accelerator-driven system. Ann Nucl Energy 37:1214
3. Pyeon CH, Nakano H, Yamanaka M et al (2015) Neutron characteristics of solid targets in
accelerator-driven system with 100-MeV protons at Kyoto University Critical Assembly. Nucl
Technol 192:181
4. X-5 Monte Carlo team (2003) MCNP—a general Monte Carlo N-particle transport code,
version 5. LA-UR-03-1987
5. Ziegler JF, Biersack JP, Ziegler MD (1985) The stopping and range of ions in matter. Pergamon
Press, New York
6. Takada H, Kosako K, Fukahori T (2009) Validation of JENDL high-energy file through analyses
of spallation experiments at incident proton energies from 0.5 to 2.83 GeV. J Nucl Sci Technol
46:589
7. Shibata K, Iwamoto O, Nakagawa T et al (2011) JENDL-4.0: a new library for nuclear science
and engineering. J Nucl Sci Technol 48:1
8. Kobayashi K, Iguchi T, Iwasaki S et al (2002) JENDL dosimetry file 99 (JENDL/D-99). JAERI
Report 1344
9. Pyeon CH, Vu TM, Yamanaka M et al (2018) Reaction rate analyses of accelerator-driven
system experiments with 100 MeV protons at Kyoto University Critical Assembly. J Nucl Sci
Technol 55:190
10. Lim JY, Pyeon CH, Yagi T et al (2012) Subcritical multiplication parameters of the acceleratordriven system with 100 MeV protons at the Kyoto University Critical Assembly. Sci Technol
Nucl Install 395878:9
11. Goorley JT, James MR, Booth TE et al (2013) Initial MCNP6 release overview - MCNP6
version 1.0. LA-UR-13-22934
12. Pyeon CH, Takemoto Y, Yagi T et al (2012) Accuracy of reaction rates in the accelerator-driven
system with 14 MeV neutrons at the Kyoto University Critical Assembly. Ann Nucl Energy
40:229
13. Pyeon CH, Shiga H, Abe K et al (2010) Reaction rate analysis of nuclear spallation reactions
generated by 150, 190 and 235 MeV protons. J Nucl Sci Technol 47:1090
14. Ashland (2017) Gafchromic film. http://gafchromic.com/, Accessed 16 Jun 2020
15. Pyeon CH, Azuma T, Takemoto Y et al (2013) Experimental analyses of spallation neutrons
generated by 100 MeV protons at the Kyoto University Critical Assembly. Nucl Eng Technol
45:81
16. Pyeon CH, Shiga H, Misawa T et al (2009) Reaction rate analyses for an accelerator-driven
system with 14 MeV neutrons in the Kyoto University Critical Assembly. J Nucl Sci Technol
46:965
17. Verbinski VV, Burrus WR, Love TA et al (1968) Calibration of an organic scintillator for
neutron spectrometry. Nucl Instrum Methods 65:8
18. Dietzw G, Klien H (1982) Gamma-calibration of NE-213 scintillator counters. Nucl Instrum
Methods 193:549
19. Satoh D, Sato T, Shingyo N et al (2006) SCINFUL-QMD: Monte Carlo based computer code to
calculate response function and detection efficiency of a liquid organic scintillator for neutron
energies up to 3 GeV. JAEA-Data/Code, 2006-23
20. Reginatto M, Wiegel B, Zimbal A et al (2004) The UMG-code package, ver. 3.3. NEA-1665/03
21. Lemmel HD et al (2001) ENDF/B-VI release 8 (Last release for ENDF/B-VI) The U.S.
evaluated nuclear data library for neutron reaction data. IAEA-NDS-100
22. Pyeon CH, Yamanaka M, Lee B (2020) Reaction rate analyses of high-energy neutrons by
injection of 100 MeV protons onto lead-bismuth target. Ann Nucl Energy 144:107498
23. Yamanaka M, Jang KW, Shin SH et al (2019) Proton beam characteristics with wavelength
shifting fiber detector at Kyoto University Critical Assembly. Jpn J Appl Phys 58:036002
24. Sato T, Iwamoto Y, Hashimoto S et al (2018) Features of particle and heavy ion transport code
system (PHITS) version 3.02. J Nucl Sci Technol 55:684