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Optimization of the Maximum Skin Dose Measurement Technique Using Digital Imaging and Communication in Medicine—Radiation Dose Structured Report Data for Patients Undergoing Cerebral Angiography

Understanding the maximum skin dose is important for avoiding tissue reactions in cerebral angiography. In this study, we devised a method for using digital imaging and communication in medicine—radiation dose structured report (DICOM-RDSR) data to accurately estimate the maximum skin dose from the...

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Autores principales: Morota, Koichi, Moritake, Takashi, Nagamoto, Keisuke, Matsuzaki, Satoru, Nakagami, Koichi, Sun, Lue, Kunugita, Naoki
Formato: Online Artículo Texto
Lenguaje:English
Publicado: MDPI 2020
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC7824295/
https://www.ncbi.nlm.nih.gov/pubmed/33374876
http://dx.doi.org/10.3390/diagnostics11010014
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author Morota, Koichi
Moritake, Takashi
Nagamoto, Keisuke
Matsuzaki, Satoru
Nakagami, Koichi
Sun, Lue
Kunugita, Naoki
author_facet Morota, Koichi
Moritake, Takashi
Nagamoto, Keisuke
Matsuzaki, Satoru
Nakagami, Koichi
Sun, Lue
Kunugita, Naoki
author_sort Morota, Koichi
collection PubMed
description Understanding the maximum skin dose is important for avoiding tissue reactions in cerebral angiography. In this study, we devised a method for using digital imaging and communication in medicine—radiation dose structured report (DICOM-RDSR) data to accurately estimate the maximum skin dose from the total air kerma at the patient entrance reference point (Total K(a,r)). Using a test data set (n = 50), we defined the mean ratio of the maximum skin dose obtained from measurements with radio-photoluminescence glass dosimeters (RPLGDs) to the Total K(a,r) as the conversion factor, CF(Ka,constant), and compared the accuracy of the estimated maximum skin dose obtained from multiplying Total K(a,r) by CF(Ka,constant) (Estimation Model 1) with that of the estimated maximum skin dose obtained from multiplying Total K(a,r) by the functional conversion factor CF(Ka,function) (Estimation Model 2). Estimation Model 2, which uses the quadratic function for the ratio of the fluoroscopy K(a,r) to the Total K(a,r) (K(a,r) ratio), provided an estimated maximum skin dose closer to that obtained from direct measurements with RPLGDs than compared with that determined using Estimation Model 1. The same results were obtained for the validation data set (n = 50). It was suggested the quadratic function for the K(a,r) ratio provides a more accurate estimate of the maximum skin dose in real time.
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spelling pubmed-78242952021-01-24 Optimization of the Maximum Skin Dose Measurement Technique Using Digital Imaging and Communication in Medicine—Radiation Dose Structured Report Data for Patients Undergoing Cerebral Angiography Morota, Koichi Moritake, Takashi Nagamoto, Keisuke Matsuzaki, Satoru Nakagami, Koichi Sun, Lue Kunugita, Naoki Diagnostics (Basel) Article Understanding the maximum skin dose is important for avoiding tissue reactions in cerebral angiography. In this study, we devised a method for using digital imaging and communication in medicine—radiation dose structured report (DICOM-RDSR) data to accurately estimate the maximum skin dose from the total air kerma at the patient entrance reference point (Total K(a,r)). Using a test data set (n = 50), we defined the mean ratio of the maximum skin dose obtained from measurements with radio-photoluminescence glass dosimeters (RPLGDs) to the Total K(a,r) as the conversion factor, CF(Ka,constant), and compared the accuracy of the estimated maximum skin dose obtained from multiplying Total K(a,r) by CF(Ka,constant) (Estimation Model 1) with that of the estimated maximum skin dose obtained from multiplying Total K(a,r) by the functional conversion factor CF(Ka,function) (Estimation Model 2). Estimation Model 2, which uses the quadratic function for the ratio of the fluoroscopy K(a,r) to the Total K(a,r) (K(a,r) ratio), provided an estimated maximum skin dose closer to that obtained from direct measurements with RPLGDs than compared with that determined using Estimation Model 1. The same results were obtained for the validation data set (n = 50). It was suggested the quadratic function for the K(a,r) ratio provides a more accurate estimate of the maximum skin dose in real time. MDPI 2020-12-23 /pmc/articles/PMC7824295/ /pubmed/33374876 http://dx.doi.org/10.3390/diagnostics11010014 Text en © 2020 by the authors. Licensee MDPI, Basel, Switzerland. This article is an open access article distributed under the terms and conditions of the Creative Commons Attribution (CC BY) license (http://creativecommons.org/licenses/by/4.0/).
spellingShingle Article
Morota, Koichi
Moritake, Takashi
Nagamoto, Keisuke
Matsuzaki, Satoru
Nakagami, Koichi
Sun, Lue
Kunugita, Naoki
Optimization of the Maximum Skin Dose Measurement Technique Using Digital Imaging and Communication in Medicine—Radiation Dose Structured Report Data for Patients Undergoing Cerebral Angiography
title Optimization of the Maximum Skin Dose Measurement Technique Using Digital Imaging and Communication in Medicine—Radiation Dose Structured Report Data for Patients Undergoing Cerebral Angiography
title_full Optimization of the Maximum Skin Dose Measurement Technique Using Digital Imaging and Communication in Medicine—Radiation Dose Structured Report Data for Patients Undergoing Cerebral Angiography
title_fullStr Optimization of the Maximum Skin Dose Measurement Technique Using Digital Imaging and Communication in Medicine—Radiation Dose Structured Report Data for Patients Undergoing Cerebral Angiography
title_full_unstemmed Optimization of the Maximum Skin Dose Measurement Technique Using Digital Imaging and Communication in Medicine—Radiation Dose Structured Report Data for Patients Undergoing Cerebral Angiography
title_short Optimization of the Maximum Skin Dose Measurement Technique Using Digital Imaging and Communication in Medicine—Radiation Dose Structured Report Data for Patients Undergoing Cerebral Angiography
title_sort optimization of the maximum skin dose measurement technique using digital imaging and communication in medicine—radiation dose structured report data for patients undergoing cerebral angiography
topic Article
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC7824295/
https://www.ncbi.nlm.nih.gov/pubmed/33374876
http://dx.doi.org/10.3390/diagnostics11010014
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