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Estimating radiation effective doses from whole body computed tomography scans based on U.S. soldier patient height and weight

The purpose of this study is to explore how a patient's height and weight can be used to predict the effective dose to a reference phantom with similar height and weight from a chest abdomen pelvis computed tomography scan when machine-based parameters are unknown. Since machine-based scanning...

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Published in:BMC medical imaging 2011-10, Vol.11 (1), p.20-20, Article 20
Main Authors: Prins, Robert D, Thornton, Raymond H, Schmidtlein, C Ross, Quinn, Brian, Ching, Hung, Dauer, Lawrence T
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description The purpose of this study is to explore how a patient's height and weight can be used to predict the effective dose to a reference phantom with similar height and weight from a chest abdomen pelvis computed tomography scan when machine-based parameters are unknown. Since machine-based scanning parameters can be misplaced or lost, a predictive model will enable the medical professional to quantify a patient's cumulative radiation dose. One hundred mathematical phantoms of varying heights and weights were defined within an x-ray Monte Carlo based software code in order to calculate organ absorbed doses and effective doses from a chest abdomen pelvis scan. Regression analysis was used to develop an effective dose predictive model. The regression model was experimentally verified using anthropomorphic phantoms and validated against a real patient population. Estimates of the effective doses as calculated by the predictive model were within 10% of the estimates of the effective doses using experimentally measured absorbed doses within the anthropomorphic phantoms. Comparisons of the patient population effective doses show that the predictive model is within 33% of current methods of estimating effective dose using machine-based parameters. A patient's height and weight can be used to estimate the effective dose from a chest abdomen pelvis computed tomography scan. The presented predictive model can be used interchangeably with current effective dose estimating techniques that rely on computed tomography machine-based techniques.
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source Open Access: PubMed Central; Publicly Available Content Database
subjects Body Height
Body Weight
CT imaging
Female
Health aspects
Humans
Male
Military aspects
Military Personnel
Monte Carlo Method
Phantoms, Imaging
Physiological aspects
Predictive Value of Tests
Radiation Dosage
Radiography, Abdominal
Radiography, Thoracic
Regression Analysis
Soldiers
Stature
Tomography, X-Ray Computed
United States
title Estimating radiation effective doses from whole body computed tomography scans based on U.S. soldier patient height and weight
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