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Current status of biological indicators to detect and quantify previous exposures to radiation. Biological Indicators Working Group.

作者信息

Lushbaugh C, Eisele G, Burr W, Hubner K, Wachholz B

机构信息

Oak Ridge Associated Universities, Medical and Health Sciences Division, TN 37831-0117.

出版信息

Health Phys. 1991;60 Suppl 1:103-9.

PMID:2004917
Abstract

Hematologic changes following whole-body exposure to gamma or x-ray radiation have been used to estimate dose. The usefulness of this biological indicator is limited because of the recovery of these cells with time, thus making it unsuitable for estimation of dose years after exposure. The same is true for spermatogenic indicators; recovery and restoration of sperm numbers and fertility makes this biological indicator impractical for assessing radiation dose decades after radiation exposure. As noted in the text of the report, immunological concepts are in a state of rapid development, and it is possible that improved methods for applying immunologic procedures as biological indicators of radiation may be developed in the future. However, at the time, immunological indicators are not useful, even in an early time period, for quantitating radiation dose after total-body irradiation. A semiquantitative effect is observable in the early phase after total-body irradiation over a period of days to weeks, but there is little data available to indicate whether any of the immunological parameters can be indicative of a dose when the test is applied several years after radiation exposure. More detailed information regarding immunological indicators for estimating irradiation dose has been summarized elsewhere (Wasserman 1986). There is good agreement that ionizing radiation causes biochemical changes in the body; however, attempts to apply these changes to provide a reliable biological dosimetry system have not been particularly successful. The status of this research has been summarized by Gerber (1986). One of the difficulties has been the problem of establishing clear dose-effect relationships in humans. The lack of specificity in the response for radiation is another problem. Additional problems are due to the strict time dependency of biochemical changes and the limited duration of the changes during the postexposure period. Information on biochemical indicators is based on animal experiments; human experience is limited to a relatively few accidental human exposures and investigations involving patients undergoing radiation therapy. It appears that none of the biochemical indicators studied are currently useful for radiation dosimetry. Even if further developed, it is questionable whether or not biochemical indicators could be of use in estimating radiation dose received years and decades prior to the assay.

摘要

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