Efficacy of several compensating materials on the high-energy electron beam irradiation

This study aimed to use different dose verification methods Treatment Planning System (TPS), thimble ionization chamber and two-dimensional matrix ionization chamber (MatriXX) to explore the compensating effects of several materials on high-energy electron beam irradiation. In this study, we positio...

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Veröffentlicht in:Biotechnology, biotechnological equipment biotechnological equipment, 2021-01, Vol.35 (1), p.1722-1730
Hauptverfasser: Chen, Lina, Chen, Mianrong, Chen, Zuoming, Huang, Bin, Wu, Zeyou, Liang, Yuqi, Li, Yanning, Liu, Yuliang, Xu, Juan, Wang, Hongmei, Ding, Zhenhua, Luo, Chunbin, Lin, Xiao-Shan
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container_issue 1
container_start_page 1722
container_title Biotechnology, biotechnological equipment
container_volume 35
creator Chen, Lina
Chen, Mianrong
Chen, Zuoming
Huang, Bin
Wu, Zeyou
Liang, Yuqi
Li, Yanning
Liu, Yuliang
Xu, Juan
Wang, Hongmei
Ding, Zhenhua
Luo, Chunbin
Lin, Xiao-Shan
description This study aimed to use different dose verification methods Treatment Planning System (TPS), thimble ionization chamber and two-dimensional matrix ionization chamber (MatriXX) to explore the compensating effects of several materials on high-energy electron beam irradiation. In this study, we positioned plexiglass panels, wet medical gauze, colloidal compensatory material and Vaseline compensator, all of the same thickness, flat on the surface of a MatriXX. The above four materials were placed on the surface of a thimble ionization chamber and irradiated with a linear accelerator. Under the same irradiation parameters, the compensation dose of of the tested materials was worked out by a dosimeter, which was connected at the thimble ionization chamber. Under vertical irradiation from the linear accelerator, the accelerator used the same irradiation conditions for the four materials, which were flat on the surface of the MatriXX, then determined the distribution of compensation doses by the soft system matching with the MatriXX. The results showed that the compensation dose of moist medical gauze was lower than the other three materials, the compensation dose of Plexiglass plate, colloidal compensatory material and vaseline compensation were approximate. The dose compensation effect of the vaseline compensation material made by our research group was close to the plexiglass plate and colloidal compensatory material used in radiotherapy in real life. Its physical and chemical properties are stable, easy to manufacture and store, and economical and practical.
doi_str_mv 10.1080/13102818.2021.1993090
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In this study, we positioned plexiglass panels, wet medical gauze, colloidal compensatory material and Vaseline compensator, all of the same thickness, flat on the surface of a MatriXX. The above four materials were placed on the surface of a thimble ionization chamber and irradiated with a linear accelerator. Under the same irradiation parameters, the compensation dose of of the tested materials was worked out by a dosimeter, which was connected at the thimble ionization chamber. Under vertical irradiation from the linear accelerator, the accelerator used the same irradiation conditions for the four materials, which were flat on the surface of the MatriXX, then determined the distribution of compensation doses by the soft system matching with the MatriXX. The results showed that the compensation dose of moist medical gauze was lower than the other three materials, the compensation dose of Plexiglass plate, colloidal compensatory material and vaseline compensation were approximate. The dose compensation effect of the vaseline compensation material made by our research group was close to the plexiglass plate and colloidal compensatory material used in radiotherapy in real life. Its physical and chemical properties are stable, easy to manufacture and store, and economical and practical.</description><identifier>ISSN: 1310-2818</identifier><identifier>EISSN: 1314-3530</identifier><identifier>DOI: 10.1080/13102818.2021.1993090</identifier><language>eng</language><publisher>Sofia: Taylor &amp; Francis</publisher><subject>Biotechnology ; Chemical properties ; Colloids ; Compensation ; compensation material ; Compensators ; Dosimetry ; Drug dosages ; Electron beams ; Electron irradiation ; Energy ; Gauze ; High energy electron beam irradiation ; High energy electrons ; Ionization ; Ionization chambers ; Irradiation ; MatriXX ; Medical materials ; Normal distribution ; Oncology ; Planning ; Radiation dosage ; Radiation therapy ; thimble ionization chamber ; treatment plan system</subject><ispartof>Biotechnology, biotechnological equipment, 2021-01, Vol.35 (1), p.1722-1730</ispartof><rights>2022 The Author(s). 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In this study, we positioned plexiglass panels, wet medical gauze, colloidal compensatory material and Vaseline compensator, all of the same thickness, flat on the surface of a MatriXX. The above four materials were placed on the surface of a thimble ionization chamber and irradiated with a linear accelerator. Under the same irradiation parameters, the compensation dose of of the tested materials was worked out by a dosimeter, which was connected at the thimble ionization chamber. Under vertical irradiation from the linear accelerator, the accelerator used the same irradiation conditions for the four materials, which were flat on the surface of the MatriXX, then determined the distribution of compensation doses by the soft system matching with the MatriXX. The results showed that the compensation dose of moist medical gauze was lower than the other three materials, the compensation dose of Plexiglass plate, colloidal compensatory material and vaseline compensation were approximate. 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In this study, we positioned plexiglass panels, wet medical gauze, colloidal compensatory material and Vaseline compensator, all of the same thickness, flat on the surface of a MatriXX. The above four materials were placed on the surface of a thimble ionization chamber and irradiated with a linear accelerator. Under the same irradiation parameters, the compensation dose of of the tested materials was worked out by a dosimeter, which was connected at the thimble ionization chamber. Under vertical irradiation from the linear accelerator, the accelerator used the same irradiation conditions for the four materials, which were flat on the surface of the MatriXX, then determined the distribution of compensation doses by the soft system matching with the MatriXX. The results showed that the compensation dose of moist medical gauze was lower than the other three materials, the compensation dose of Plexiglass plate, colloidal compensatory material and vaseline compensation were approximate. The dose compensation effect of the vaseline compensation material made by our research group was close to the plexiglass plate and colloidal compensatory material used in radiotherapy in real life. Its physical and chemical properties are stable, easy to manufacture and store, and economical and practical.</abstract><cop>Sofia</cop><pub>Taylor &amp; Francis</pub><doi>10.1080/13102818.2021.1993090</doi><tpages>9</tpages><oa>free_for_read</oa></addata></record>
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subjects Biotechnology
Chemical properties
Colloids
Compensation
compensation material
Compensators
Dosimetry
Drug dosages
Electron beams
Electron irradiation
Energy
Gauze
High energy electron beam irradiation
High energy electrons
Ionization
Ionization chambers
Irradiation
MatriXX
Medical materials
Normal distribution
Oncology
Planning
Radiation dosage
Radiation therapy
thimble ionization chamber
treatment plan system
title Efficacy of several compensating materials on the high-energy electron beam irradiation
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