TY - JOUR
T1 - Development of DynamicMC for PHITS Monte Carlo package
AU - Watabe, Hiroshi
AU - Sato, Tatsuhiko
AU - Yu, Kwan Ngok
AU - Zivkovic, Milena
AU - Krstic, Dragana
AU - Nikezic, Dragoslav
AU - Kim, Kyeong Min
AU - Yamaya, Taiga
AU - Kawachi, Naoki
AU - Tanaka, Hiroki
AU - Haque, A.K.F.
AU - Islam, M. Rafiqul
AU - Beni, Mehrdad Shahmohammadi
PY - 2024/2
Y1 - 2024/2
N2 - Previously, we have developed DynamicMC for modeling relative movement of Oak Ridge National Laboratory phantom in a radiation field for the Monte Carlo N-Particle package (Health Physics. 2023,124(4):301–309). Using this software, three-dimensional dose distributions in a phantom irradiated by a certain mono-energetic (Mono E) source can be deduced through its graphical user interface. In this study, we extended DynamicMC to be used in combination with the Particle and Heavy Ion Transport code System (PHITS) by providing it with a higher flexibility for dynamic movement for an anthropomorphic phantom. For this purpose, we implemented four new functions into the software, which are (1) to generate not only Mono E sources but also those having an energy spectrum of an arbitrary radioisotope (2) to calculate the absorbed doses for several radiologically important organs (3) to automatically average the calculated absorbed doses along the path of the phantom and (4) to generate user-defined slab shielding materials. The first and third items utilize the PHITS-specific modalities named radioisotope-source and sumtally functions, respectively. The computational cost and complexity can be dramatically reduced with these features. We anticipate that the present work and the developed open-source tools will be in the interest of nuclear radiation physics community for research and teaching purposes. © The Author(s) 2023. Published by Oxford University Press. All rights reserved.
AB - Previously, we have developed DynamicMC for modeling relative movement of Oak Ridge National Laboratory phantom in a radiation field for the Monte Carlo N-Particle package (Health Physics. 2023,124(4):301–309). Using this software, three-dimensional dose distributions in a phantom irradiated by a certain mono-energetic (Mono E) source can be deduced through its graphical user interface. In this study, we extended DynamicMC to be used in combination with the Particle and Heavy Ion Transport code System (PHITS) by providing it with a higher flexibility for dynamic movement for an anthropomorphic phantom. For this purpose, we implemented four new functions into the software, which are (1) to generate not only Mono E sources but also those having an energy spectrum of an arbitrary radioisotope (2) to calculate the absorbed doses for several radiologically important organs (3) to automatically average the calculated absorbed doses along the path of the phantom and (4) to generate user-defined slab shielding materials. The first and third items utilize the PHITS-specific modalities named radioisotope-source and sumtally functions, respectively. The computational cost and complexity can be dramatically reduced with these features. We anticipate that the present work and the developed open-source tools will be in the interest of nuclear radiation physics community for research and teaching purposes. © The Author(s) 2023. Published by Oxford University Press. All rights reserved.
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U2 - 10.1093/rpd/ncad278
DO - 10.1093/rpd/ncad278
M3 - RGC 21 - Publication in refereed journal
C2 - 37961917
SN - 0144-8420
VL - 200
SP - 130
EP - 142
JO - Radiation Protection Dosimetry
JF - Radiation Protection Dosimetry
IS - 2
ER -