3D printed brachytherapy jig for Reference Air Kerma Rate calibration

被引:0
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作者
Emily Simpson-Page
Lynsey Hamlett
Dominika Lew
Holly Stephens
Rachael Wilks
Tanya Kairn
Scott B. Crowe
机构
[1] Royal Brisbane and Women’s Hospital,Cancer Care Services
[2] Sunshine Coast University Hospital,School of Information Technology and Electrical Engineering
[3] Genesis Cancer Care Queensland,Herston Biofabrication Institute
[4] University of Queensland,School of Chemistry and Physics
[5] Metro North Hospital and Health Service,undefined
[6] Queensland University of Technology,undefined
关键词
Radiation therapy; Iridium-192; Additive manufacture; Fused deposition modelling;
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摘要
3D printing in modern radiotherapy allows users the ability to create custom devices which can be a valuable tool for use in brachytherapy source calibration. Radiotherapy centres may verify their brachytherapy source activity with a calibrated Farmer chamber. For this purpose, a jig was designed, 3D printed and commissioned for in-air source strength calibration. Measurements on four afterloaders with varied equipment and environments were completed. A full uncertainty budget was developed and measurements with the in-air jig were consistently within 3% of the certificate source strength, and within the 4.1% combined uncertainty for comparing a well chamber measurement (1.7%) with the in air jig (3.75%). By creating a jig that is able to be customised to multiple catheter sizes and cylindrical chamber designs, centres can be provided with the option of independently checking their source strength with ease and for little cost.
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页码:1141 / 1150
页数:9
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