Fabrication of malleable three-dimensional-printed customized bolus using three-dimensional scanner.
A three-dimensional (3D)-printed customized bolus (3D bolus) can be used for radiotherapy application to irregular surfaces. However, bolus fabrication based on computed tomography (CT) scans is complicated and also delivers unwanted irradiation. Consequently, we fabricated a bolus using a 3D scanne...
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doaj-625781dfa2ab4eb1a113cbaf9426e8462020-11-24T20:50:15ZengPublic Library of Science (PLoS)PLoS ONE1932-62032017-01-01125e017756210.1371/journal.pone.0177562Fabrication of malleable three-dimensional-printed customized bolus using three-dimensional scanner.Jae Won ParkSe An OhJi Woon YeaMin Kyu KangA three-dimensional (3D)-printed customized bolus (3D bolus) can be used for radiotherapy application to irregular surfaces. However, bolus fabrication based on computed tomography (CT) scans is complicated and also delivers unwanted irradiation. Consequently, we fabricated a bolus using a 3D scanner and evaluated its efficacy. The head of an Alderson Rando phantom was scanned with a 3D scanner. The 3D surface data were exported and reconstructed with Geomagic Design X software. A 3D bolus of 5-mm thickness designed to fit onto the nose was printed with the use of rubber-like printing material, and a radiotherapy plan was developed. We successfully fabricated the customized 3D bolus, and further, a CT simulation indicated an acceptable fit of the 3D bolus to the nose. There was no air gap between the bolus and the phantom surface. The percent depth dose (PDD) curve of the phantom with the 3D bolus showed an enhanced surface dose when compared with that of the phantom without the bolus. The PDD of the 3D bolus was comparable with that of a commercial superflab bolus. The radiotherapy plan considering the 3D bolus showed improved target coverage when compared with that without the bolus. Thus, we successfully fabricated a customized 3D bolus for an irregular surface using a 3D scanner instead of a CT scanner.http://europepmc.org/articles/PMC5426771?pdf=render |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Jae Won Park Se An Oh Ji Woon Yea Min Kyu Kang |
spellingShingle |
Jae Won Park Se An Oh Ji Woon Yea Min Kyu Kang Fabrication of malleable three-dimensional-printed customized bolus using three-dimensional scanner. PLoS ONE |
author_facet |
Jae Won Park Se An Oh Ji Woon Yea Min Kyu Kang |
author_sort |
Jae Won Park |
title |
Fabrication of malleable three-dimensional-printed customized bolus using three-dimensional scanner. |
title_short |
Fabrication of malleable three-dimensional-printed customized bolus using three-dimensional scanner. |
title_full |
Fabrication of malleable three-dimensional-printed customized bolus using three-dimensional scanner. |
title_fullStr |
Fabrication of malleable three-dimensional-printed customized bolus using three-dimensional scanner. |
title_full_unstemmed |
Fabrication of malleable three-dimensional-printed customized bolus using three-dimensional scanner. |
title_sort |
fabrication of malleable three-dimensional-printed customized bolus using three-dimensional scanner. |
publisher |
Public Library of Science (PLoS) |
series |
PLoS ONE |
issn |
1932-6203 |
publishDate |
2017-01-01 |
description |
A three-dimensional (3D)-printed customized bolus (3D bolus) can be used for radiotherapy application to irregular surfaces. However, bolus fabrication based on computed tomography (CT) scans is complicated and also delivers unwanted irradiation. Consequently, we fabricated a bolus using a 3D scanner and evaluated its efficacy. The head of an Alderson Rando phantom was scanned with a 3D scanner. The 3D surface data were exported and reconstructed with Geomagic Design X software. A 3D bolus of 5-mm thickness designed to fit onto the nose was printed with the use of rubber-like printing material, and a radiotherapy plan was developed. We successfully fabricated the customized 3D bolus, and further, a CT simulation indicated an acceptable fit of the 3D bolus to the nose. There was no air gap between the bolus and the phantom surface. The percent depth dose (PDD) curve of the phantom with the 3D bolus showed an enhanced surface dose when compared with that of the phantom without the bolus. The PDD of the 3D bolus was comparable with that of a commercial superflab bolus. The radiotherapy plan considering the 3D bolus showed improved target coverage when compared with that without the bolus. Thus, we successfully fabricated a customized 3D bolus for an irregular surface using a 3D scanner instead of a CT scanner. |
url |
http://europepmc.org/articles/PMC5426771?pdf=render |
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