Ozone: an overview of its toxicity in man and animals.

Daniel B. Menzel
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引用次数: 202

Abstract

Ozone is one of the most toxic and ubiquitous air pollutants. This review focuses on the toxic effects of ozone in animals and on the similarities and disimilarities between the toxic effects in animals and humans. The molecular basis for the toxicity of ozone is discussed, based on the vigorous oxidizing properties of ozone. Despite the existence of anatomical differences between human, subhuman primate, and dog lungs versus common experimental rodent lungs, the anatomical lesion of ozone inhalation occurs at the functionally equivalent site of the junction between the conducting airway and the respiratory region. Ciliated cells of the upper airways and the type 1 cell of the centriacinar region are most affected. Type 2 cell proliferation is a hallmark of ozone toxicity. A wide variety of biochemical and physiological changes have been noted in several animal species and in humans. Considerable evidence for a free-radical-mediated or lipid peroxide-mediated toxicity is evident, especially in the induction of the glutathione peroxidase system and the protective effects of vitamins C and E. Ozone appears to be a weak mutagen and to produce chromosomal abnormalities. Defects in defense against airborne infection are present in animals, which are more susceptible to airborne infection after ozone exposure. Epidemiological studies, however, fail to detect increased respiratory infections in humans due to ozone. Despite the variety of toxic effects, few qualitative differences between species are apparent; rather, quantitative differences do occur. Ozone may thus be an ideal compound for quantitative extrapolation of toxicity from animals to humans.
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臭氧:概述其对人类和动物的毒性。
臭氧是最有毒、最普遍的空气污染物之一。本文综述了臭氧对动物的毒性作用,以及臭氧对动物和人类毒性作用的异同。从臭氧的强氧化性出发,讨论了臭氧毒性的分子基础。尽管人类、亚人灵长类动物和狗的肺与普通实验啮齿动物的肺存在解剖差异,但臭氧吸入的解剖损伤发生在传导气道和呼吸区交界处的功能等效部位。上呼吸道纤毛细胞和向心区1型细胞受影响最大。2型细胞增殖是臭氧毒性的标志。各种各样的生物化学和生理变化已经在一些动物物种和人类中被注意到。大量证据表明自由基介导或脂质过氧化物介导的毒性是明显的,特别是在诱导谷胱甘肽过氧化物酶系统和维生素C和e的保护作用方面。臭氧似乎是一种弱诱变剂,可产生染色体异常。动物在防御空气传播感染方面存在缺陷,臭氧暴露后动物更容易受到空气传播感染。然而,流行病学研究未能发现臭氧导致人类呼吸道感染增加。尽管毒性作用多种多样,但物种之间几乎没有明显的质量差异;相反,数量上的差异确实存在。因此,臭氧可能是定量推断动物对人类毒性的理想化合物。
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