Estimation of Operator Dose by Dose Area Product Meter

Because of the more advanced and more complex procedures in interventional radiology (IVR), longer treatment times have become necessary. Therefore, it is important to determine the exposure doses received by operators and patients. Operator doses arising from the use of X-rays are mainly due to sca...

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Veröffentlicht in:Japanese Journal of Radiological Technology 2006, Vol.62(7), pp.951-960
Hauptverfasser: Sakamoto, Hajime, Kobayashi, Hiroshi, Ikegawa, Hiroaki, Ohshima, Shinji, Aikawa, Yoshihito, Sano, Yoshitomo, Araki, Tsutomu
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container_end_page 960
container_issue 7
container_start_page 951
container_title Japanese Journal of Radiological Technology
container_volume 62
creator Sakamoto, Hajime
Kobayashi, Hiroshi
Ikegawa, Hiroaki
Ohshima, Shinji
Aikawa, Yoshihito
Sano, Yoshitomo
Araki, Tsutomu
description Because of the more advanced and more complex procedures in interventional radiology (IVR), longer treatment times have become necessary. Therefore, it is important to determine the exposure doses received by operators and patients. Operator doses arising from the use of X-rays are mainly due to scattered radiation. The purpose of this study was to assess the feasibility of estimating operator dose by dose area product (DAP), which shows the total X-ray output from the collimator. DAP showed a strong correlation with the space dose from the fundamental examination. In clinical practice, we measured the exposure doses of the neck, left shoulder, left hand, and right finger using a thermoluminescence dosimeter (TLD). These then were compared with the DAP. The results indicated that the dose equivalents (H70 μm) of the neck and left shoulder were strongly correlated with DAP (r=0.85, 0.86), whereas the H70 μm of the left hand and right finger were less closely correlated (r=0.40, 0.48). In comparison with the fluoroscopic time, the dose equivalents showed a better correlation with DAP in all the evaluated parts. The effective doses for the operator were strongly correlated with DAP (r=0.87). When measurements are not available, dose equivalents and operator effective doses can be estimated by the DAP, as indicated by the strong correlations recognized in this study.
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subjects Computer Systems
dose area product (DAP)
dose equivalent
effective dose
Humans
Occupational Exposure - analysis
Occupational Exposure - prevention & control
operator dose
Radiation Dosage
Radiation Monitoring - instrumentation
Radiation Monitoring - methods
Radiography, Interventional
Radiology
Radiometry - instrumentation
Radiometry - methods
Scattering, Radiation
space dose
Thermoluminescent Dosimetry - instrumentation
Thermoluminescent Dosimetry - methods
title Estimation of Operator Dose by Dose Area Product Meter
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