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Assessment of Allowable Thermal Load for a River Reservoir Subject to Multi-Source Thermal Discharge from Operating and Designed Beloyarsk NPP Units (South Ural, Russian Federation)

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Abstract

This study develops a quantitative approach to the establishment of a maximum allowable thermal discharge into a freshwater body (the Beloyarsk Reservoir) incorporated in the once-through cooling technology at the Beloyarsk nuclear power plant (NPP) (South Urals, Russian Federation). The study is based on a 3-D hydrodynamic model, embracing water circulation, heat transfer, and ice-cover formation in the Beloyarsk Reservoir. The model is driven by atmospheric forcing, river runoff, and the discharge/intake of NPP cooling water. It was used to simulate the horizontal and vertical distribution of water temperature under the effect of the operation of existing (number 3) and anticipated (numbers 4 and 5) nuclear power units. The model is validated by the comparison of the computation results with observed water temperature distribution and ice-cover configuration obtained with remote sensing techniques. The model was also used to predict the future evolution of water temperature after the launching of two new power units, which, having a common cooling system, may affect each other. It was shown that the first of the new units, no. 4, will not dramatically affect the existing thermal conditions in the reservoir, while launching one more unit, no. 5, will apparently result in overheating of the reservoir water in response to the greater volume of cooling-water discharge from the two power units. Because of a specific configuration of the recirculation flow, the reservoir may fail to cope with the dissipation of the generated heat, leading to a steady (uncontrolled) rise of water temperature in the inlet channel to one of the power units. This will reduce the potential of NPP, using the once-through cooling technology, and will most likely have an adverse effect on the survival of aquatic organisms in the Beloyarsk Reservoir. Therefore, some other environment-saving technologies must be developed for removing surplus heat from the unit no. 5 of the Beloyarsk NPP.

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Acknowledgments

The authors acknowledge Saint-Petersburg State University for research grant 3.39.138.2014. The authors also wish to acknowledge the anonymous reviewer for critical reading of the manuscript and suggesting a number of important comments and corrections.

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Authors and Affiliations

  1. Saint Petersburg State University, Institute of Environmental Geology, Russian Academy of Sciences, Sredniy Ave., 41, St. Petersburg, 199004, Russia

    Anton M. Nikulenkov, Vyacheslav G. Rumynin & Elena A. Vereschagina

  2. P.P. Shirshov Institute of Oceanology, Russian Academy of Sciences, St. Petersburg Branch, 30, Pervaya Liniya, 199053, St. Petersburg, Russia

    Anton Y. Dvornikov & Vladimir A. Ryabchenko

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  1. Anton M. Nikulenkov
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  2. Anton Y. Dvornikov
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  3. Vyacheslav G. Rumynin
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Correspondence to Vyacheslav G. Rumynin.

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Nikulenkov, A.M., Dvornikov, A.Y., Rumynin, V.G. et al. Assessment of Allowable Thermal Load for a River Reservoir Subject to Multi-Source Thermal Discharge from Operating and Designed Beloyarsk NPP Units (South Ural, Russian Federation). Environ Model Assess 22, 609–623 (2017). https://doi.org/10.1007/s10666-017-9562-6

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