IMPROVEMENT OF ENVIRONMENTAL STANDARDS FOR RADON-222 EXPOSURE

Authors

  • L. Grygorieva Petro Mohyla Black Sea National University

DOI:

https://doi.org/10.34132/

Keywords:

radon-222, environmental standards, exposure, atmospheric air

Abstract

Radiation safety is ensured by the system of legislative acts, regulatory and technical documents aimed at limiting the occurrence of deterministic (manifestation and severity of which depends on the absorbed dose) and stochastic (probability of which does not depend on the dose, and the frequency of their occurrence depends on the dose) effects in humans from various sources of ionising radiation. Certain areas of southern Ukraine (central and northern territories of Mykolaiv, Odesa, Kherson, and Kirovohrad regions) are characterised by the presence of granitoids in the underlying rock layer, which contributes to the widespread development of granite mining and granite processing industries in the region [5, 8]. Due to this and the planned introduction of uranium mining enterprises in the region in the near future, one of the most pressing issues of radiation safety and radiation hygiene in the region is the issue of radiation safety from man-made enhanced natural radiation background, primarily 222Rn exposure.

The article presents an analysis of the sources of dose load on workers in the granite mining industry. The purpose of the study was to analyse the levels of 222Rn exposure of workers in the granite mining industry to assess the need to adjust existing environmental standards. The materials used were the results of measurements of exposure dose rate, measurements of 222Rn volumetric equivalent equilibrium activity in the air of working premises and at the workplaces of granite quarry workers in Mykolaiv region, and the results of studies of 222Rn content in drinking water.

References

Buzynnyi, M., Mykhailova, L. (2022) Generalised data of 20 years of radon-222 monitoring in drinking water in Ukraine. Nuclear and Radiation Safety. №4(96). 2022. 29-38.

Effects of Radiation on the Environment. United Nations Scientific Committee on the Effects of Atomic Radiation: UNSCEAR (2000) Report to the General Assembly with Scientific Annex.- New York: UN, 2000.

ICRP Publication 95 (Annalis of the ICRP Vol. 23 No. 2) Protection Against Radon-222 at Home and at Work.- Vienna: Pergamon, 2019. 78 p.

Pavlenko T.A., Los I.P., Aksenov N.V.. Ignor - Rn levels and irradiation doses in the territory of the Ukraine // Radiation Measurements. - 1996. - Vol. 26. - P.585-591.

Grygorieva, L. (2017) Radon-222 radiation doses to workers of granite mining enterprises. Problems of radiation medicine and radiobiology. 2017. Issue 22. 97-107.

Los, I.P., Pavlenko, T.A. (2003) Limitation of human exposure by technogenically enhanced sources of natural origin // Environment and Health, 2003. - Issue 1. - P. 49-54.

Radiation Safety Standards of Ukraine (NRBU-97/2000D) - Kyiv: Ministry of Health of Ukraine, 2000. 135 p.

Pavlenko, T.A., Los, I.P. (2009) Existing doses of exposure of the population of Ukraine. Nuclear and Radiation Safety. №1. 2009. 18 - 22.

Shelest, Z. M., Korbut, M. B., Gerasymchuk, O. L., & Kalchuk, S. V. (2023). Assessment of radiation background in residential premises caused by technogenically enhanced sources of natural origin. Technical Engineering, (1(91), 398-406.

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Published

2025-03-16

How to Cite

IMPROVEMENT OF ENVIRONMENTAL STANDARDS FOR RADON-222 EXPOSURE. (2025). Environmental and Radiation Safety, 1(2), 5-7. https://doi.org/10.34132/