10
C. H. Pyeon
31. Taninaka H, Miyoshi A, Hashimoto K et al (2011) Feynman-α analysis for a thermal subcritical
reactor system driven by an unstable 14 MeV-neutron source. J Nucl Sci Technol 48:1272
32. 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
33. 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 2012:395878
34. Yagi T, Pyeon CH, Misawa T (2013) Application of wavelength shifting fiber to subcriticality
measurements. Appl Radiat Isot 72:11
35. Takahashi Y, Azuma T, Nishio T et al (2013) Conceptual design of multi-targets for acceleratordriven system experiments with 100 MeV protons. Ann Nucl Energy 54:162
36. Pyeon CH, Azuma T, Takemoto Y et al (2013) Experimental analyses of external neutron
source generated by 100 MeV protons at the Kyoto University Critical Assembly. Nucl Eng
Technol 45:81
37. Sakon A, Hashimoto K, Sugiyama W et al (2013) Power spectral analysis for a thermal
subcritical reactor system driven by a pulsed 14 MeV neutron source. J Nucl Sci Technol
50:481
38. Sakon A, Hashimoto K, Maarof MA et al (2014) Measurement of large negative reactivity of
an accelerator-driven system in the Kyoto University Critical Assembly. J Nucl Sci Technol
51:116
39. Pyeon CH, Yagi T, Sukawa K et al (2014) Mockup experiments on the thorium-loaded
accelerator-driven system in the Kyoto University Critical Assembly. Nucl Sci Eng 177:156
40. Sakon A, Hashimoto K, Sugiyama W et al (2015) Determination of prompt-neutron decay
constant from phase shift between beam current and neutron detection signals for an acceleratordriven system in the Kyoto University Critical Assembly. J Nucl Sci Technol 52:204
41. Pyeon CH, Yagi T, Takahashi Y et al (2015) Perspectives of research and development of
accelerator-driven system in Kyoto University Research Reactor Institute. Prog Nucl Energy
82:22
42. 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
43. Pyeon CH, Fujimoto A, Sugawara T et al (2016) Validation of Pb nuclear data by Monte Carlo
analyses of sample reactivity experiments at Kyoto University Critical Assembly. J Nucl Sci
Technol 53:602
44. Kim WK, Lee HC, Pyeon CH et al (2016) Monte Carlo analysis of the accelerator-driven
system at Kyoto University Research Reactor Institute. Nucl Eng Technol 48:304
45. Yamanaka M, Pyeon CH, Yagi T et al (2016) Accuracy of reactor physics parameters in thoriumloaded accelerator-driven system experiments at Kyoto University Critical Assembly. Nucl Sci
Eng 183:96
46. Endo T, Yamamoto A, Yagi T et al (2016) Statistical error estimation of the Feynman-α method
using the bootstrap method. J Nucl Sci Technol 53:1447
47. Yamanaka M, Pyeon CH, Misawa T (2016) Monte Carlo approach of effective delayed neutron
fraction by k-ratio method with external neutron source. Nucl Sci Eng 184:551
48. Dulla S, Hoh SS, Marana G et al (2017) Analysis of KUCA measurements by the reactivity
monitoring MAρTA method. Ann Nucl Energy 101:397
49. Yamanaka M, Pyeon CH, Kim SH et al (2017) Effective delayed neutron fraction in acceleratordriven system experiments with 100 MeV protons at Kyoto University Critical Assembly. J
Nucl Sci Technol 54:293
50. Iwamoto H, Nishihara K, Yagi T et al (2017) On-line subcriticality measurement using a pulsed
spallation neutron source. J Nucl Sci Technol 54:432
51. Pyeon CH, Fujimoto A, Sugawara T et al (2017) Sensitivity and uncertainty analyses of lead
sample reactivity experiments at Kyoto University Critical Assembly. Nucl Sci Eng 185:460
C. H. Pyeon
31. Taninaka H, Miyoshi A, Hashimoto K et al (2011) Feynman-α analysis for a thermal subcritical
reactor system driven by an unstable 14 MeV-neutron source. J Nucl Sci Technol 48:1272
32. 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
33. 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 2012:395878
34. Yagi T, Pyeon CH, Misawa T (2013) Application of wavelength shifting fiber to subcriticality
measurements. Appl Radiat Isot 72:11
35. Takahashi Y, Azuma T, Nishio T et al (2013) Conceptual design of multi-targets for acceleratordriven system experiments with 100 MeV protons. Ann Nucl Energy 54:162
36. Pyeon CH, Azuma T, Takemoto Y et al (2013) Experimental analyses of external neutron
source generated by 100 MeV protons at the Kyoto University Critical Assembly. Nucl Eng
Technol 45:81
37. Sakon A, Hashimoto K, Sugiyama W et al (2013) Power spectral analysis for a thermal
subcritical reactor system driven by a pulsed 14 MeV neutron source. J Nucl Sci Technol
50:481
38. Sakon A, Hashimoto K, Maarof MA et al (2014) Measurement of large negative reactivity of
an accelerator-driven system in the Kyoto University Critical Assembly. J Nucl Sci Technol
51:116
39. Pyeon CH, Yagi T, Sukawa K et al (2014) Mockup experiments on the thorium-loaded
accelerator-driven system in the Kyoto University Critical Assembly. Nucl Sci Eng 177:156
40. Sakon A, Hashimoto K, Sugiyama W et al (2015) Determination of prompt-neutron decay
constant from phase shift between beam current and neutron detection signals for an acceleratordriven system in the Kyoto University Critical Assembly. J Nucl Sci Technol 52:204
41. Pyeon CH, Yagi T, Takahashi Y et al (2015) Perspectives of research and development of
accelerator-driven system in Kyoto University Research Reactor Institute. Prog Nucl Energy
82:22
42. 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
43. Pyeon CH, Fujimoto A, Sugawara T et al (2016) Validation of Pb nuclear data by Monte Carlo
analyses of sample reactivity experiments at Kyoto University Critical Assembly. J Nucl Sci
Technol 53:602
44. Kim WK, Lee HC, Pyeon CH et al (2016) Monte Carlo analysis of the accelerator-driven
system at Kyoto University Research Reactor Institute. Nucl Eng Technol 48:304
45. Yamanaka M, Pyeon CH, Yagi T et al (2016) Accuracy of reactor physics parameters in thoriumloaded accelerator-driven system experiments at Kyoto University Critical Assembly. Nucl Sci
Eng 183:96
46. Endo T, Yamamoto A, Yagi T et al (2016) Statistical error estimation of the Feynman-α method
using the bootstrap method. J Nucl Sci Technol 53:1447
47. Yamanaka M, Pyeon CH, Misawa T (2016) Monte Carlo approach of effective delayed neutron
fraction by k-ratio method with external neutron source. Nucl Sci Eng 184:551
48. Dulla S, Hoh SS, Marana G et al (2017) Analysis of KUCA measurements by the reactivity
monitoring MAρTA method. Ann Nucl Energy 101:397
49. Yamanaka M, Pyeon CH, Kim SH et al (2017) Effective delayed neutron fraction in acceleratordriven system experiments with 100 MeV protons at Kyoto University Critical Assembly. J
Nucl Sci Technol 54:293
50. Iwamoto H, Nishihara K, Yagi T et al (2017) On-line subcriticality measurement using a pulsed
spallation neutron source. J Nucl Sci Technol 54:432
51. Pyeon CH, Fujimoto A, Sugawara T et al (2017) Sensitivity and uncertainty analyses of lead
sample reactivity experiments at Kyoto University Critical Assembly. Nucl Sci Eng 185:460