BIOCOENOSIS OF MYA ARENARIA (LINNAEUS, 1758) IN THE KERCH STRAIT (AZOV AND BLACK SEA BASIN)
Abstract and keywords
Abstract (English):
The bivalve mollusk Mya arenaria is a species recently introduced to the Azov and Black Sea Basin. Presently, it has become one of the dominant species in the Kerch Strait. Its biocoenosis keeps to silt and silty shell bottoms and comprises 13 animal species. The species density varies from 1 to 10 species/0.1m2 with 5.0±0.3 species/0.1m2 being the average value. In terms of species richness, bivalve mollusks are the most prevalent. The abundance is in the range from 40 to 2620 ind./m2 with 590±130 ind./m2, on average. The biomass ranges from 58 to 1599 g/m2; it is 770±67 g/m2 on average. The bivalve mollusks are the most prevalent in terms of abundance and biomass. A sizable part of the abundance belongs to crustaceans. The dominant species account for an average of 6 to 11 % of the total abundance and 78 to 85 % of the overall biomass. In general, the species composition of the biocoenosis on various substrates is characterized by a rather high degree of similarity. When the biocenosis dominated by Cerastoderma glaucum transformed into a M. arenaria one, the species richness decreased by 3.5 times, while the species density was relatively unchanged. The total abundance of the biocoenosis remained constant. The total biomass increased by 3.8–5.9 times due to the soft-shell clam (sand gaper) biomass. Then, upon the transformation of M. arenaria biocoenosis into Anadara kagoshimensis one, the species richness increased by 3.8 times and the species density increased by 1.5–2.0 times. Along with that, the total abundance and total biomass of the biocoenosis remained statistically the same. In terms of species richness, all three biocoenoses had the same core species. The changes in the species composition mainly resulted from the changes in rare species. Transformation of the biocoenoses occurred mostly due to the introduction of invasive species which took the leading position within the biocenotic community. In fact, there was a successive replacement of dominant species. The biocoenosis of M. arenaria in the central part of the Kerch Strait is an intermediate one between the biocoenoses of lagoon cockle and half-crenated ark.

Keywords:
Mya arenaria, Kerch Strait, Azov and Black Sea Basin, biocoenosis, zoobenthos, succession
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References

1. Boltacheva N. A., Revkov N. K., Nadol'nyy A. A., Anninskaya I. N. Donnaya fauna yugo-zapadnoy chasti Azovskogo morya. Taksonomicheskiy sostav i biocenoticheskaya organizaciya makrozoobentosa v 2016–2017

2. Brockaya V. A., Zenkevich L. A. Kolichestvennyy uchet donnoy fauny Barenceva morya // Trudy VNIRO. – 1939. – T. IV. – S. 5–126.

3. Bulysheva N. I., Semin V. L., Shohin I. V., Savikin A. I., Kovalenko E. P., Biryukova S. V. Chuzherodnye vidy zoobentosa v ekosistemah Nizhnego Dona i Azovskogo morya na rubezhe XX–XXI vv.

4. Vorob'ev V. P. Bentos Azovskogo morya // Trudy AzCherNIRO. – 1949. – Vyp. 13. – 193 s.

5. Vorob'eva L. V., Sinegub I. A. Zoobentos biocenozov Odesskogo morskogo regiona Chernogo morya // Ekosistemy, ih optimizaciya i ohrana. – 2014. – Vyp. 11. – S. 198–206.

6. Zhadin V. I. Metody gidrobiologicheskih issledovaniy. – M.: Vysshaya shkola. – 1960. – 191 s.

7. Leybson R. G. Kolichestvennyy uchet donnoy fauny Motovskogo zaliva // Trudy VNIRO. – 1939. – T. IV. – S. 127–198.

8. Lyubischev A. A. Dispersionnyy analiz v biologii. – Moskva: MGU. – 1986. – 200 s.

9. Opredelitel' fauny Chernogo i Azovskogo morey. T. 1. Svobodnozhivuschie bespozvonochnye. Prosteyshie, gubki, kishechnopolostnye, chervi, schupal'cevye. – Kiev: Naukova dumka. – 1968. – 437 s.

10. Opredelitel' fauny Chernogo i Azovskogo morey. T. 2. Svobodnozhivuschie bespozvonochnye. Rakoobraznye. – Kiev: Naukova dumka. – 1969. – 536 s.

11. Opredelitel' fauny Chernogo i Azovskogo morey. T. 3. Svobodnozhivuschie bespozvonochnye. Chlenistonogie (krome rakoobraznyh), mollyuski, iglokozhie, schetinkochelyustnye, hordovye.

12. Pesenko Yu. A. Principy i metody kolichestvennogo analiza v faunisticheskih issledovaniyah. – Moskva: Nauka. 1982. – 287 s.

13. Revkov N. K., Boltacheva N. A. Donnaya fauna yugo-zapadnoy chasti Azovskogo morya: transformaciya biocenoza makrozoobentosa v nachale XXI veka // Ekosistemy. – 2021. – Vyp. 26 (56). – S. 51–66.

14. Rozenberg G. S. Neskol'ko slov ob indekse raznoobraziya Simpsona // Samarskaya Luka. – 2007. – T. 16, № 3 (21). – S. 581–584.

15. Savikin A. I. Novye dannye o rasprostranenii Mya arenaria Linnaeus, 1758 v Taganrogskom zalive Azovskogo morya // Nauka yuga Rossii. – 2020. – T. 16, № 4. – S. 84–87.

16. Savchuk M. Ya. Mya arenaria L. – novyy element v faune Azovskogo morya // Vestnik zoologii. – 1980. – № 5. – S. 11–15.

17. Smol'nikova O. V., Biocenoz Mya arenaria na litorali Kandalashskogo zaliva Bulogo morya // Sohranenie biologicheskogo raznoobraziya nazemnyh i morskih ekosistem v usloviyah vysokih shirot:

18. Smol'nikova O. V., Mescheryakov N.I. Biologiya dvustvorchatogo mollyuska Mya arenaria (Linnaeus, 1758) guby Hlebnaya Kol'skogo zaliva Barenceva morya // Trudy Kol'skogo nauchnogo centra RAN. Vyp. 10

19. Terent'ev A. S. Makrozoobentos yugo-zapadnoy chasti Azovskogo morya v usloviyah ekspluatacii gazokondensatnyh mestorozhdeniy

20. Filippova N. A., Gerasimova A. V., Kozin V. V., Kayrov A. I., Maksimova N. V. Organizaciya soobschestva makrozoobentosa myagkih gruntov litorali guby Chupa Belogo morya: mnogoletnii aspekty

21. Frolenko L. N. Osobennosti formirovaniya donnyh biocenozov Azovskogo morya v sovremennyy period // XI Vserossiyskaya konferenciya po promyslovoy okeanologii. Tezisy dokladov. – 1999. – S.136.

22. Frolenko L. N., Studenikina E.I. Rol' vselencev v donnyh soobschestvah Azovskogo morya v sovremennyy period // XI Vserossiyskaya konferenciya po promyslovoy okeanologii. Tezisy dokladov.

23. Ekologicheskiy atlas Azovskogo morya / [Gl. red. akad. G. G. Matishov; otv. red. N. I. Golubeva, V. V. Sorokina]. – Rostov-na-Donu: YuNC RAN. – 2011. – 328 s.

24. Andre, C., Rosenberg, R. Adult-larval interactions in the suspension-feeding bivalves Cerastoderma edule and Mya arenaria // Marine Ecology Progress Series. – 1991. – Vol. 71. – P. 227–234

25. Baker, P., Mann, R. L. Habitat Requirements for the Softshell Clam, Mya arenaria in the Chesapeake Bay. Special Scientific Report – 1990. – N 125. Virginia Institute of Marine Science, William & Mary.

26. Balogh J. Lebensgemeinschaften der Landtiere. – Berlin, 1958. – 560 r.

27. Bodenheimer F. S. Precisd’ecologieanimal. – Paris, 1955. – 315 r.

28. Wesselingh F. P. Mollusc species from the Pontocaspian region – an expert opinion list // ZooKeys 827. – 2019 – R. 31–124.

29. Hurlbert S. H. The nonconcept of species diversity: A critique and alternative parameters // Ecology. – Vol. 52, N 4. – 1971. – P. 577–586.

30. Pilombo F. B. Phylogenetic analysis of the Balanidae (Cirripedia, Ballanomorpha) // Zoologica Scripta. – Vol. 33, N 3. – 2004. – P. 261–276.

31. Simpson E. H. Measurement of diversity // Nature. – 1949. – Vol. 163. N 688. – 688 p.

32. Strasser M. Mya arenaria on ancient invader of the North Sea coast // Helgoländer Meeresuntersuchunden. – 1999. – Vol. 52. – P. 309–324.

33. Terentijev A. S., Litvinenko N. M. Biocenosis of intruders Mya arenaria and Cunearca cornea (Scapharca) in the north-western Azov Sea // The Black Sea ecological problems

34. World Register of Marine Species (WoRMS). URLhttps://www.marinespecies.org/index.php (data obrascheniya 29.03.2024)

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