Abstract
The Black Sea received abundant amount of plutonium alpha–emitting radionuclides 238,239,240Pu with global fallout after nuclear weapon testing in atmosphere and after accident on the Chernobyl nuclear power plant (ChNPP) in 1986. Distribution of plutonium radionuclides in abiotic (water and bottom sediment) and biotic (algae, mollusks, fish) components of the Black Sea ecosystems was studied during the post–Chernobyl period at different areas as a rule at western and central parts of the sea. This study is devoted to the analysis of a radioecological situation in the Black Sea and concerns the levels of contamination and redistribution of the 239,240Pu in the abiotic and biotic components of the sea ecosystem. The long–term accumulation and migration trends of these radionuclides were analyzed concerning abiotic components of the Black Sea after the ChNPP accident. Zones were revealed that have an increased ability to accumulate these radioactive pollutants. The estimations of the fluxes of elimination of the after-accidental plutonium alpha–radionuclides into bottom sediments in open and coastal areas of the sea were obtained. Evaluation of irradiation dose rates formed with alpha–radiation of 239,240Pu in Black Sea hydrobionts was carried out. Important quantitative characteristics of plutonium migration in the Black Sea ecosystems were obtained and application of the comparative analysis together with equidosimetric approach to the ecological effects assessment from the 239,240Pu doses on hydrobionts in contemporary radiological situation in the Black Sea as well as in different potential radioecological situations in wide range of alpha-emitting plutonium radionuclides concentration activity in seawater was fulfilled.
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Amiro BD (1997) Radiological dose conversation factors for generic non–human biota used for screening potential ecological impacts. J Environ Radioact 35(1):37–51
Baloga A (1994) Radioecological research of the Black Sea. Report from Romania. IAEA Bull 2:36–38
Blaylock BG, Frank ML, O’Neal BR (1993) Methodology for estimating radiation dose rates to freshwater biota exposed to radionuclides in the environment. Report ES/ER/TM–78, Oak Ridge National Laboratory, TN, USA, p 10
Buesseler КO, Livingston HD (1996) Natural and man–made radionuclides in the Black Sea. Radionuclides in the oceans: input and inventories. IPSN, Editions de Physique, France, pp 201–217
Chernobyl Accident (1995) Bar’yakhtar VG (ed) Naukova dumka, Kiev, 473 p (in Russian)
Choppin GR, Pamela JW (1998) The chemistry of actinide behavior in marine systems. Aquatic Geochemistry 4(1):77–101
Egorov VN, Gulin SB, Popovichev VN, Mirzoyev NY, Tereshchenko NN, Lazorenko GE, Malakhova LV, Plotitsyna OV, Malakhov TV, Proskurnin VY, Sidorov IG, Gulina LV, Stetsyuk AP, Marchenko YV (2013) The biochemical mechanisms of formation of critical areas in the Black Sea against pollution. Marine Ecol J XII(4):5–26 (in Russian)
Eremeev VN, Konovalov SK (2006) On the formation of the budget and the regularities of the oxygen and hydrogen sulfide distribution in the Black Sea waters. Morskoi Ecol J 3:5–29 (in Russian)
Finenko ZZ, Churilov TYur, Suslin VV (2011) Assessment of phytoplankton biomass and primary production in the Black Sea from satellite data. In: Commercial bioresources of the Black and Azov Seas. ECOSI-Hydrophysica, Sevastopol, pp 220–236 (in Russian)
Gulin SB, Polikarpov GG, Egorov VN, Martin J-M, Korotkov AA, Stokozov NA (2002) Radioactive contamination of the north–western Black Sea sediments. Estuar Coast Shelf Sci 54:541–549
Gulin SB, Egorov VN, Polikarpov GG, Stokozov NA, Mirzoyeva NY, Tereschenko NN, Osvath I (2012) General trends in radioactive contamination of the marine environment from the Black Sea to Antractic Ocean. In: Burlakova EB, Naydich VI (eds) The lessons of Chernobyl: 25 years later. Nova Science Publishers, New York, pp 281–299
Gulin SB, Mirzoyeva NY, Egorov VN, Polikarpov GG, Sidorov IG, Proskurnin VY (2013) Secondary radioactive contamination of the Black Sea after Chernobyl accident: recent levels, pathways and trends. J Environ Radioact 124:50–56
IAEA (International Atom Energy Agency) (1992) Effects of ionizing radiation on plant and animals at levels implied by current radiation protection standards. Technical Report 332. IAEA, Vienna, p 55
IAEA (International Atomic Energy Agency) (2004) Marine environmental assessment of the Black Sea. Working Material. Regional Technical Co–operation Project RER/2/003. IAEA, Vienna, p 358
IAEA (International Atomic Energy Agency) (2015) Accident at the nuclear power plant “Fukushima-Daiichi” (2015) Report to the CEO. IAEA ,Vienna, 278 p (in Russian)
Ivanov VA, Belokopytov VN (2011) Oceanography of the Black Sea. NAS of Ukraine, Morskoi Gidrophysicheskiy Institute, Sevastopol (in Russian)
Izrael Yu A (1990) Chernobyl: radioactive contamination of the environment. Gidrometeoisdat, Leningrad, 296 p (in Russian)
Morss LR, Edelstein NM, Fuger J, Katz J (eds) (2008) Chemistry of the actinide and transactinide elements. Springer, Dordrecht, 4191 p
Papucci C, Charmasson S, Delfanti R, Gasco C, Mitchell P, Sanchez-Cabeza JA (1996) Time evolution and levels of mam-made radioactivity in the Mediterranean Sea. In: Radionuclides in the Oceans. Input and Inventories. Editions de Physique, Les Ulis, pp 177–198
Plutonium (2003) Fundamental problems. In: Nadytko BA, Timofeeva LF (eds) FSUE “VNIIEF”, Sarov, vol 1, 2, 498 p (in Russian)
Polikarpov GG (1998) Conceptual model of responses of organisms, populations and ecosystems to all possible dose rates of ionizing radiation in the environment. In: RADOC 96–97, Norwich/Lowestoft, 8–11 April, 1997. Radiat Prot Dosimetry 75(1–4):181–185
Polikarpov GG, Lazorenko GE (1992) The role of sediment reducing and oxidizing zones in the Black Sea removing radionuclides from the water of the Black Sea. In: Polikarpov GG (ed) Molismologiya. Naukova Dumka, Kiev, pp 135–143. (in Russian)
Polikarpov GG, Kulebakina LG, Timoschuk VI, Stokozov NA, Korotkov AA (1990) Some data on survey of Sr–90 and for comparison Cs–137 and Pu in the Dnieper River and its estuary. Proceedings of The SCOPE–RADPATH meeting “Biochemical Pathways of Artificial Radionuclides”, 26–30 March 1990, Lancaster, UK, p 18
Polikarpov GG, Kulebakina LG, Timoschuk VI, Stokozov NA, Korotkov AA (1991) Radionuclides migration in the Dnieper River cascade, the Dnieper–Bug estuary and the Black Sea shallow waters. (Materials) The SCOPE–RADPATH Meeting: Biochemical Pathways of Artificial Radionuclides, 12–20 April. RE.40.91. Essex University, p 26
Polikarpov GG, Egorov VN, Gulin SB, Stokozov NA, Lasorenko GE, Mirzoeva NYu, Tereshchenko NN, Tsytsugina VG, Kulebakina LG, Popovichev VN, Korotkov AA, Evtushenko DB, Zherko NV (2008) Radioecological response of the Black Sea to the Chernobyl accident. Polikarpov GG, Egorov VN (eds) EKOSI–Gidrophisica, Sevastopol, 667 p (in Russian)
Sanchez AL, Gastaud J, Noshkin V, Buesseler KO (1991) Plutonium oxidation states in the southwestern Black Sea: evidence regarding the origin of the cold intermediate layer. Deep Sea Res. 38(2):845–853
SanPiN 2.6.1.2523–09 Radiation Safety Standards NRB-99/2009 (2009) 93 p. http://www.seogan.ru/sanpin-2.6.1.2523–09–normi–radiacionnoiy–bezopasnosti–nrb–99/2009.html (in Russian)
Skopintsev BA (1975) Formation of the modern chemical composition of the Black Sea. Gidrometeoizdat, Leningrad, 336 p (in Russian)
Sources and effects of ionizing radiation. United Nations Scientific Committee on the effects of atomic radiation (1996) Report to the General Assembly, with scientific annex: effect of radiation on the environment. United Nations, New York, 86 p
Strezov A, Yordanova I, Pimpl M, Stoilova T (1996) Natural radionuclide and plutonium content in Black Sea bottom sediments. Health Phys 7(1):70–80
Tereshchenko NN (2005) Plutonium radionuclides in the components of the Black Sea coastal ecosystems in the waters of Sevastopol. Scietific notes. Serіya Bіology. Sp Is Hydroecol 27(4):243–247
Tereshchenko NN (2011) Leading role in the redistribution of sediments in the Black Sea plutonium ekosistemah. Naukovі pratsі Naukovo–methodical journal. Technogenic Safety CHDU im. Petra Mogili, Nikolaev 169(157):63–70 (in Russian)
Tereshchenko NN (2013) Plutonium in hydrobionts of the Black Sea. Naukovі pratsі Naukovo–methodical journal. Technogenic Safety CHDU im. Petra Mogili, Nikolaev 210(198):52–61 (in Russian)
Tereshchenko NN, Polikarpov GG (2007) The radioecological situation in the Black Sea in respect of radioisotopes 238, 239,240Pu after the Chernobyl accident in comparison with some other bodies of water, and is within a 30-km zone of Chernobyl NPP. Problems of radioecology and border disciplines. Nizhnevartovsk, 10:12–29 (in Russian)
Tereshchenko NN, Polikarpov GG, Lazorenko GE (2007) Radioecological situation in the Black Sea with regard to plutonium: the pollution levels of ecosystem components and doses to biota. Morskoy Ecol J VI (2):25–37 (in Russian)
Tereshchenko NN, Gulin SB, Proskurnin VY (2011) A modified technique of plutonium concentration determination in seawater. Ecol. Safety of Coastal and Shelf Zones and Comprehensive Use of Shelf. Resources 25(1):241–251. (in Russian)
Tereshchenko NN, Polikarpov GG, Krilova TA (2012) The barrier role of the Black Sea regarding 239,240Pu, 137Cs, 90Sr – the main dose–forming man–made radionuclides in the post-Chernobyl period. Ecosyst Optim Safety 7:243–250. (in Russian)
Tereshchenko NN, Proskurnin VY, Gulin SB, Krylova TA (2013) Radioecological monitoring of plutonium in the bottom sediments of the Sevastopol bays. Ecol. Safety of Coastal and Shelf Zones and Comprehensive Use of Shelf. Resources 27:289–293. (in Russian)
Tereshchenko NN, Mirzoyeva NY, Gilin SB, Milchakova NA (2014) Contemporary radioecological state of the North-western Black Sea and the problems of environment conservation. Mar Pollut Bull 81(1):7–23
Tereshchenko NN, Gulin SB, Proskurin VY (2016) Radiological regularities of redistribution of plutonium alpha–radionuclides in the ecosystem of the Black Sea. Mar Biol J 1(3):3–13. doi: 10.21072/mbj.01.2.05 (in Russian)
Transuranic elements in the environment (1985): Translat. from English. Hanson WC (ed) Energoatomizdat, Moscow, 344 p (in Russian)
Trapeznikov AV, Molchanova IV, Karavayeva EN, Trapeznikova VN (2007) Mirgation of radionuclides in freshwater and terrestrial ecosystems. Publisher Ural University, Ekaterinburg, V. 1. 480 p (in Russian)
Warner F, Harrison RM (1993) (eds) Radioecology after Chernobyl: biogeochemical pathways of artificial radionuclides. Chichester, New York, 400 p
WOMARS (Worldwide Marine Radioactivity Studies) (2005) Radionuclide levels in oceans and seas. IAEA, Vienna, 187 p
World nuclear power plants (2016) http://miraes.ru/aes-mira-top-10-stran-po-kolichestvu-yadernyih-reaktorovАЭСМира. Last access date 30 Aug 2016
Zalogin BS, Kosarev AN (2000) Meditrannean Sea. River runoff. http://geo.1september.ru/2000/29/no29.htm. Credizemnoe sea river flow (in Russian)
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Tereshchenko, N.N. (2018). Levels of Activity Concentration, Migration and Dose Rates on Biota from Alpha-Radioisotopes of Plutonium in the Black Sea Ecosystem. In: Finkl, C., Makowski, C. (eds) Diversity in Coastal Marine Sciences. Coastal Research Library, vol 23. Springer, Cham. https://doi.org/10.1007/978-3-319-57577-3_16
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DOI: https://doi.org/10.1007/978-3-319-57577-3_16
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