Verification of mean dose in a tumor using 3D-printed tumor-model scintillators in anthropomorphic phantoms and a spherical phantomopen access
- Authors
- Seo, Young Chan; Kim, Tae Hoon; Choi, Yona; Yang, Hye Jeong; Kim, Yong Kyun; Kim, Kyo-Tae; Bahng, Jungbae; Chung, Hyun-Tai
- Issue Date
- Mar-2025
- Publisher
- 한국원자력학회
- Keywords
- 3D printing; Anthropomorphic phantom; Mean absorbed dose; Plastic scintillator; Radiotherapy; Treatment planning system verification
- Citation
- Nuclear Engineering and Technology, v.57, no.3, pp 1 - 6
- Pages
- 6
- Indexed
- SCIE
SCOPUS
KCI
- Journal Title
- Nuclear Engineering and Technology
- Volume
- 57
- Number
- 3
- Start Page
- 1
- End Page
- 6
- URI
- https://scholarworks.bwise.kr/hanyang/handle/2021.sw.hanyang/212338
- DOI
- 10.1016/j.net.2024.10.024
- ISSN
- 1738-5733
2234-358X
- Abstract
- To enhance treatment outcomes of radiotherapy, accurate verification of dosimetric parameters such as the mean, minimum, and maximum doses is essential. This study aimed to measure the mean absorbed dose in a tumor-shaped target and compare the results with the calculated value of the treatment planning system. Tumor model scintillators (TMSs) mimicking brain tumors were fabricated with a commercial 3D printer based on stereolithography files of tumors. The TMSs were irradiated following treatment plans made with the Leksell Gamma Plan® (Elekta AB, Stockholm, Sweden), and the mean dose in each TMS was measured three times and compared with the calculated value. Eleven TMSs were set at the center of a spherical solid water phantom. Two additional TMSs were fabricated according to images of vestibular schwannomas and were set at the tumor location in head model phantoms following each patient's head shape. The mean relative differences between the measured and calculated mean doses were less than one percent. This method provides an independent parameter for evaluating the accuracy of the treatment planning system.
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