Implementation of OSL nanoDot dosimetry in different treatment techniques for head and neck cancer

In recent decades, technological advances have been made in the field of radiotherapy and with it the emergence of new dosimetric systems for their calibration and commissioning, among other uses. Such is the case of the measurement in the build-up region, where there is no charged-particle equilibrium, which is reflected in the increase in surface dose for patient treatments and potential skin toxicities as a secondary effect. This study utilizes optically stimulated dosemeters (nanoDot) and the radiochromic film (EBT3) to measure skin doses in patients with head and neck cancer who received radiotherapy. Accurately depicting 15 patients with different diagnoses from 3 linear accelerators using 3D, intensity modulated radiation therapy, or volumetric arc therapy/RapidArc technology, these results were compared with those calculated in the treatment planning system (TPS) and obtaining a percentage of variation for the EBT3 ranged from 0.30% to 6.15%, while that observed for the nanoDot was from 0.51% to 4.88%. This difference may be attributed to the reproducibility of placement in patients. Therefore, for clinical use, nanoDot dosemeters are a viable alternative for in vivo dosimetry where rapid validation of planning system results is required.

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Publication Details

Journal
Radiation Protection Dosimetry
Published
2024-11-22
DOI
https://doi.org/10.1093/rpd/ncae217
Citations
2
Primary Topic
Advanced Radiotherapy Techniques
Type
article
Field-Weighted Citation Impact
1.22
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article

Implementation of OSL nanoDot dosimetry in different treatment techniques for head and neck cancer

I.B. Lozano, J. Roman, J. I. Guzmán‐Castañeda, Ingrid M Negrete-Hernandez
2 citations
Radiation Protection Dosimetry
Advanced Radiotherapy Techniques
1.22
article

Implementation of OSL nanoDot dosimetry in different treatment techniques for head and neck cancer

I.B. Lozano, J. Roman, J. I. Guzmán‐Castañeda, Ingrid M Negrete-Hernandez
article en
2 citations

Abstract

In recent decades, technological advances have been made in the field of radiotherapy and with it the emergence of new dosimetric systems for their calibration and commissioning, among other uses. Such is the case of the measurement in the build-up region, where there is no charged-particle equilibrium, which is reflected in the increase in surface dose for patient treatments and potential skin toxicities as a secondary effect. This study utilizes optically stimulated dosemeters (nanoDot) and the radiochromic film (EBT3) to measure skin doses in patients with head and neck cancer who received radiotherapy. Accurately depicting 15 patients with different diagnoses from 3 linear accelerators using 3D, intensity modulated radiation therapy, or volumetric arc therapy/RapidArc technology, these results were compared with those calculated in the treatment planning system (TPS) and obtaining a percentage of variation for the EBT3 ranged from 0.30% to 6.15%, while that observed for the nanoDot was from 0.51% to 4.88%. This difference may be attributed to the reproducibility of placement in patients. Therefore, for clinical use, nanoDot dosemeters are a viable alternative for in vivo dosimetry where rapid validation of planning system results is required.

Radiation Protection DosimetryVol. 201(1)
Instituto Politécnico Nacional (MX), Universidad Nacional Autónoma de México (MX)
Good health and well-being
Openalex Percentile: Top 20%
Advanced Radiotherapy Techniques
1.22
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