Radon as a Tracer of Lung Changes Induced by Smoking

After smoking, exposure to radon and its progeny is the second leading cause of lung cancer. The probability of inducing lung carcinomas by inhaled radon progeny depends on the deposited radiation dose, and is significantly affected by physiological and morphometric changes induced by smoking. Due t...

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Veröffentlicht in:Risk analysis 2020-02, Vol.40 (2), p.370-384
Hauptverfasser: Böhm, Radoslav, Sedlák, Antonín, Bulko, Martin, Holý, Karol
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creator Böhm, Radoslav
Sedlák, Antonín
Bulko, Martin
Holý, Karol
description After smoking, exposure to radon and its progeny is the second leading cause of lung cancer. The probability of inducing lung carcinomas by inhaled radon progeny depends on the deposited radiation dose, and is significantly affected by physiological and morphometric changes induced by smoking. Due to irritation of the airways, the inhalation of cigarette smoke leads to the hyperproduction of mucus. Two concurrent processes occur: on one hand, increased production of mucus protects the target cells against radiation damage; on the other hand, in the case of long‐term smokers, a chronic lung obstruction develops, causing an increase in the radiation dose to the lungs. Depending on the duration and intensity of smoking, these processes contribute to the final radiation dose with different weights. The primary objective of this study was to investigate to what extent these smoke‐induced changes can modify the resulting absorbed dose of inhaled radon progeny relative to healthy nonsmokers. Since the bronchial dose depends on the degree of lung tissue damage, we have used this dose as a tool for detecting the effects of smoking on the lung epithelium. In other words, the biological effect of radon served as a tracer of changes induced by smoking.
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The probability of inducing lung carcinomas by inhaled radon progeny depends on the deposited radiation dose, and is significantly affected by physiological and morphometric changes induced by smoking. Due to irritation of the airways, the inhalation of cigarette smoke leads to the hyperproduction of mucus. Two concurrent processes occur: on one hand, increased production of mucus protects the target cells against radiation damage; on the other hand, in the case of long‐term smokers, a chronic lung obstruction develops, causing an increase in the radiation dose to the lungs. Depending on the duration and intensity of smoking, these processes contribute to the final radiation dose with different weights. The primary objective of this study was to investigate to what extent these smoke‐induced changes can modify the resulting absorbed dose of inhaled radon progeny relative to healthy nonsmokers. 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The probability of inducing lung carcinomas by inhaled radon progeny depends on the deposited radiation dose, and is significantly affected by physiological and morphometric changes induced by smoking. Due to irritation of the airways, the inhalation of cigarette smoke leads to the hyperproduction of mucus. Two concurrent processes occur: on one hand, increased production of mucus protects the target cells against radiation damage; on the other hand, in the case of long‐term smokers, a chronic lung obstruction develops, causing an increase in the radiation dose to the lungs. Depending on the duration and intensity of smoking, these processes contribute to the final radiation dose with different weights. The primary objective of this study was to investigate to what extent these smoke‐induced changes can modify the resulting absorbed dose of inhaled radon progeny relative to healthy nonsmokers. 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source Wiley Online Library Journals Frontfile Complete; Business Source Complete
subjects Biological effects
Cigarette smoke
Concurrent processes
Epithelium
Health risk assessment
Induced
Inhalation
Irritation
Lung cancer
Lung carcinoma
Lungs
microdosimetric model
Mucus
Nonsmokers
Obstruction
Offspring
Progeny
Radiation
Radiation damage
Radiation dosage
Radon
Respiration
Smoking
Tobacco smoke
title Radon as a Tracer of Lung Changes Induced by Smoking
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