References

gesj

GEOGRAPHY, ENVIRONMENT, SUSTAINABILITY

2071-93882542-1565

Russian Geographical Society

gesj-4463

Research Article

RESEARCH PAPER

Статьи

Seagrasses (Zosteraceae And Ruppiaceae) In Russia: Distribution, Diversity, Prospects For Further Research

Iurmanov

st. Kapitana Egorova, 15, Murmansk 183038

st. Botanicheskaya, 35, Moscow, 127276

yurmanov-anton.ya.ru@yandex.ru

Popov

n. Universitetskaya, 7/9, Saint-Petersburg, 199034

Gnedenko

st. Staromonetniy, 29, Moscow, 119017

Lebedev

st. Miklukho-Maklaya, 6, Moscow, 117198

Kulikovskiy

st. Botanicheskaya, 35, Moscow, 127276

Murmansk Arctic University; К.А. Timiryazev Institute of Plant Physiology Russian Academy of SciencesRussian FederationSaint-Petersburg State UniversityRussian FederationInstitute of Geography Russian Academy of SciencesRussian FederationRUDN UniversityRussian FederationК.А. Timiryazev Institute of Plant Physiology Russian Academy of SciencesRussian Federation

2025

30122026

184139148

2026

Iurmanov A., Popov I., Gnedenko A., Lebedev Y., Kulikovskiy M.

Данная работа распространяется под лицензией Creative Commons Attribution 4.0.

This work is licensed under a Creative Commons Attribution 4.0 License.

https://ges.rgo.ru/jour/article/view/4463

This work is dedicated to analysing the conditions conducive to the spatial succession of individual, extra-tropically persistent species. It also clarifies the distribution of seagrasses (Zosteraceae and Ruppiaceae) in different seas across three oceanic basins and the Caspian Sea, which is part of the inland drainage basin affecting the Russian Federation. A review of herbarium samples and literature on Russian seagrasses revealed five regions that differ in the number of Zosteraceae and Ruppiaceae species: the West Arctic and White Sea (3 species), the Russian section of the Baltic Sea (1 species), the Russian sections of the Black and Caspian Seas and the Sea of Azov (4 species), the south of the Russian Far East (9 species), and the north of the Russian Far East (2 species). The south of the Russian Far East is of particular interest as it serves as a refuge for some seagrasses. This is because they suffer from strong anthropogenic pressure in the main part of their range, which is located further south, whereas in Russia they experience no negative impact. In the Arctic, seagrasses have a wider distribution than was previously thought. This comprehensive study has enabled the development of new approaches to finding seagrass meadows in hard-to-access coastal areas of the Russian Federation, using remote sensing techniques and the assistance of citizen science volunteers.

seagrassesZosteraceaeRuppiaceaeSeas of Russiaanthropogenic pressure

The work of Anton Iurmanov and Maxim Kulikovskiy was carried out with financial support under the state assignment of the Ministry of Science and Higher Education of the Russian Federation (theme 122 042 700 045-3). The work of Angelina Gnedenko was supported financially within the framework of the state assignment of the Institute of Geography of the Russian Academy of Sciences FMWS-2024-0007 (1 021 051 703 468-8). We wish to thank the Centre for Expedition Assistance for organising the expedition and RUDN University’s Strategic Academic Leadership Program.

References1

Aminina N. (2005). Main trends of the studies on algae and sea grasses of Far East. Isvestiya TINRO, 141: 348-354 [In Russian with English summary].

Blinova E., Yermakov I., Kamnev A., Krupina M., Stukolova I. (2014.) Grass weeds of the Russian seas: ecology, distribution, stocks, history of research. Part 2. Grass weeds of the north-west seas of Russia. Regional environmental issues, 5: 119-125 [In Russian with English summary].

Blinova E., Yermakov I., Kamnev A., Krupina M., Stukolova I. (2015). Seagrasses of the Russian seas: ecology, distribution, stocks, history of investigation. Part 3. Seagrasses of the Far Eastern seas of Russia. Regional environmental issues, 6: 16-27 [In Russian with English summary].

Duarte C. (2002). The future of seagrass meadows. Environmental Conservation, 29: 192-206.

Dulenin А. (2012). Resources and distribution of commercial macrophytes in the western Tartar Strait (Khabarovsk Territory). Izvestia TINRO, 170: 17-29 [In Russian with English summary].

Evseeva N. (2007). Macrophytobenthos of the coastal zone of southern Kuril Islands. In: Biology, state and environment of hydrobionts in Skhalin-Kuril region and its coastal waters. Proceedings of Sakhalin institute for fisheries. SakhNIRO, 9: 125-145. [In Russian].

Gusarova I. (2008). Macrophytobenthos of the northern Amur Bay. Izv TINRO, 155: 88-98 [In Russian with English summary].

Hogarth P. (2015). The Biology of Mangroves and Seagrasses. 3rdEd. Oxford etc.: Oxford University Press.

Iurmanov A., Romanov M., Bobrov A. (2021). Fruit morphology and histology of Zostera asiatica Miki and Phyllospadix iwatensis Makino (Zosteraceae) in connection with сomparative carpologу of Higher Alismatales. Botany Letters, 168(4): 1-7.

Iurmanov A., Popov I., Romanov M. (2022a). Seagrasses At The Islands Iturup And Urup Of Kuril Archipelago. Geography, Environment, Sustainability, 4(15): 39-43.

Iurmanov, A., Romanov M., Gerb M., Volodina A., Baikova I., Popov I., Markovets M. (2022b). Seagrass Zostera In the Russian Section Of the Baltic Sea. Geography, Environment, Sustainability, 2(15): 111-115.

Iurmanov A. (2022). Phylogenetic phytogeography of selected groups of seagrasses (Monocotylendoneae - Alismatales) based on analysing of genes 5.8S rRNA and RuBisCo large subunit. Geography, Environment, Sustainability, 15(1): 61-69.

Iurmanov A. (2023). Phylogenetic phytogeography of higher Alismatales: Posidoniaceae, Ruppiaceae, Cymodoceaceae, Zosteraceae, Potamogetonaceae: dis. ... kand. Biology 1.5.9. / Iurmanov A.A. Moscow. 206 p. [In Russian].

Ivanova M., Tsurpalo A. (2013). Composition and distribution of macrobenthos communities in the intertidal zone of Putyatin Island (Peter the Great Bay, Japan Sea). Izv. TINRO, 172: 149-160 [In Russian with English summary].

Ivanova M. and Tsurpalo A. (2017). The Phyllospadix iwatensis community in the intertidal zone of the Far Eastern seas of Russia. Izvestia TINRO, 188, 173–180 [In Russian with English summary].

Kalita T. and Skriptsova A. (2014). Current status of subtidal macrophyte communities in Ussuriysky and amursky bays, Sea of Japan. Russian Journal of Marine Biology, 40, 6. 427-434 [In Russian with English summary].

Kalita T., Skriptsova A. (2018). The Current State of the Zostera marina + Stephanocystis crassipes Community in the Eastern Bosphorus Strait, Sea of Japan. Russ J Mar Biol, 44: 25-35.

Klimova A., Klyukina R., Bonk A. and Klochkova N. (2015). The role of sea weeds in formation of spawning substrate of Pacific herring. Vestnik Kamchat GTU, 31, 60 – 66 [In Russian with English summary].

Kravtsova V., Vakhnina O., Chalova E. (2021). Methodological problems of studying the underwater relief in the river delta from satellite images (using the example of mapping the shoals of the Yenisei Delta). Water Resources, 48(4): 378-389.

Krause-Jensen D., Duarte C. (2014). Expansion of vegetated coastal ecosystems in the future Arctic. Frontiers in Marine Science, 1, 10.

Krause-Jensen D., Archambault P., Assis J., Bartsch I., Bischof K., Filbee-Dexter K., Dunton K., Maximova O., Ragnarsdóttir S., Sejr M., Simakova U., Spiridonov V., Wegeberg S., Winding M., Duarte C. (2020). Imprint of Climate Change on Pan-Arctic Marine Vegetation. Frontiers in Marine Science, 7.

Kulepanov V. and Drobyazin E. (2018). Species composition and quantitative distribution of seaweeds in the sublittoral zone and on the continental slope in the northwestern Japan Sea. Izvestiya TINRO, 195, 151–160 [In Russian with English summary].

Kulepanov V. (2005). Researches of macrophytobenthos at the coast of Primorye. Izvestiya TINRO, 141, 355-364 [In Russian with English summary].

Levenets I., Tyurin S. (2014). Macrophytes of Vostok Bay, Sea of Japan Biodiversity and Environment of Far East Reserves. Biodiversity and Environment of Far East Reserves 1: 36-48 [In Russian with English summary].

Levenets I. and Lebedev E. (2015). Diversity of the intertidal macrophytes of Far eastern marine biosphere reserve FEB RAS (Peter the Great bay, sea of Japan). Proceedings of Dalrybvtuz, 36, 37-48 [In Russian with English summary].

Lisovskaya O. (2011). Macrophytobenthos of the upper sections of shore zone of Russian coast of Black Sea. SPbGU, Saint-Petersbirg [In Russian].

Liubeznova N. (2013). Zostera is coming out of crisis. Priroda, 2: 95-96 [In Russian].

Makarov A., Spridonov V. (2013). Sea grasses: view from the cosmos. Priroda, 2: 91-94 [In Russian].

Maksimovich N., Ivanov M., Bukina M. (2005). Modern status and prospects for trade of sea grass Zostera marina L. in coastal waters of the Karelian coast of the White Sea. In: The study, sustainable use and conservation of natural resources of the White Sea. Proceedings of the IXth International Conference, 208-210. Petrozavodsk, 2005.

McMahon K. (2014). The movement ecology of seagrasses. Proc. Biol. Sci., 281(1795): 1-9.

MсRoy C. (1968). The Distribution and Biogeography of Zostera marina (Eelgrass) in Alaska. Pac Sci, 22(4): 507-513.

MсRoy C. (1969). Eelgrass under Arctic Winter Ice. Nature, 224: 818-819.

Milchakova, N.A., Phillips, R.C. 2003. Black Sea seagrasses. Marine Pollution Bulletin, 46, 695-699.

Ministry of Natural Resources and Ecology of the Russian Federation. Order No. 25-r dated September 22, 2015 On Approval of the List of Flora and Fauna Species that are Indicators of the Sustainable State of Marine Ecosystems in the Arctic Zone of the Russian Federation [In Russian].

Mironova N., Pankeeva T. (2020). Spatio-temporal changes in the macrophytobenthos of Kruglaya Bay (Black Sea). South of RussiaEcology Development, 15: 125-139.

Mitina N., Malashenkov B. and Gordeev A. (2016) An Assessment of Natural Resource and Economic Potential of the Coastal Waters of the Middle Primorye. Gosudarstvennoye upravleniye, Elektronnny Vestnik. 58, 147-163 [In Russian with English summary].

Mochalova O., Yakubov V. (2004). Flora of Commander islands. BPI DVO RAN, Vladivostok. [In Russian].

Morozova-Vodianitskaya N. (1939). Zostera as an Object of Gathering in the Black Sea. Priroda, 8, 49-52. [In Russian].

Orth R. (2006). A Global Crisis for Seagrass Ecosystems. BioScience, 56, 987–996.

Phillips R., Milchakova N., Alexandrov V. (2006). Growth dynamics of Zostera in Sevastopol Bay (Crimea, Black Sea). Aquatic Botany, 85: 244-248.

Popov I., Iurmanov A. (2024). Recent surveys of the sea otter (Enhydra lutris) population on Kuril Islands. Pacific Conservation Biology, 30(6): 1-9.

Sabitova L., Skriptsova A., Cherbadgy I. (2018). Oxygen exchange and primary production of Zostera japonica Аscherson et Graebner, 1907 community in the Golubinyi Bay (Sea of Japan). Russian Journal of Marine Biology, 44,5: 415-423.

Selivanova O. (2004). Macrophytes of Russian shoal of Bering Sea, Commander islands and south-eastern Kanchatka. Dr. Thesis Kazan University [In Russian].

Sergienko L., Starodubtseva A., Smolkova O., Markovskaya E. (2015). Species of the genus Zostera L. (fam. Zosteraceae) in the flora of the western coast of White Sea. Fundamentalniye issledovaniya, 2-12: 2606-2612 [In Russian].

Shaikina M., Shipilina L., Gladilin A., Simakova K., Iurmanov A. (2022). Approaches to involving volunteers in solving phytoinvasion. In: Phytoinvasions. Materials of the All-Russian Scientific and Practical conference with international participation, 463-468. Moscow University Press, Moscow. [In Russian].

Short F., Carruthers T., Dennison W., Waycott M. (2007). Global seagrass distribution and diversity: A bioregional model. Journal of Experimental Marine Biology and Ecology, 350: 3-20.

Short F., Polidoro B., Livingstone S., Carpenter K., Bandeira S., Bujang J., Calumpong H., Carruthers T., Coles R., Dennison W., Erftemeijer P., Fortes M., Freeman A., Jagtap T., Kamal A., Kendrick G., Kenworthy W., La Nafie Y., Nasution I., Orth R., Prathep A., Sanciangco J., van Tussenbroek B., Vergara S., Waycott M., Zieman J. (2011). Extinction risk assessment of the world’s seagrass species. Biological Conservation, 144: 1961-1971. Stepanian O. (2009). Distribution of macroalgae and seaweed in the Azov Sea, Kerch Strait, and Taman Bay. Oceanology, 49: 361-367.

Stepanian O. (2016). Macrophytobenthos of the Caspian Sea: Diversity, Distribution, and Productivity. Oceanology, 56: 395-405.

Teyubova V. (2012). Raznoobrazie i ekologicheskie osobennosti makrofitobentosa rossijskogo sektora Chyornogo morya. PhD Thesis. Krasnodar, Kubanskij gosudarstvennyj universitet. [In Russian].

Tikhonova N., Ukhatova Yu., Zavarzin A., Vladimirov D., Iurmanov A. (2023). Fruits of the future: the results of the Fruits of Science project. Proceedings on Applied Botany, Genetics and Breeding, 184(2):245-250 [In Russian].

Tolmachev A. (1974). Determinant of higher plants of Sakhalin and the Kuril Islands. L.: Nauka. 372 P [In Russian].

Vekhov V. (1992). Zostera of the White Sea. Moscow: Moscow State University. (In Russian).

Vidy — biologicheskie indikatory sostoyaniya morskih arkticheskih ekosistem. (2020). Moskva: Fond «NIR». 383 pp. [In Russian].

Vladimirov D., Gladilin A., Gnedenko A., Glukhov A., Grudinskaya V., Zdravchev N., Lebedev P., Minin A., Mironenko I., Senator S., Simakova K., Tikhomirova A., Shaikina M., Shipilina L., Shiryaev A., Iurmanov A., Yantser O. (2023). The methodology of conducting phenological observations. Alpina PRO. Moscow [In Russian].

Volodina A. and Gerb M. (2013). Macrophytes of the coastal zone of the Russian sector of the southeastern part of the Baltic Sea (Kaliningrad region). Izvestiya KGTU, 28, 129-135. [In Russian with English summary].

Wu Z., Raven P., Hong D. (2010). Flora of China. Vol. 23 (Acoraceae through Cyperaceae). Science Press, Beijing, and Missouri Botanical Garden Press, St. Louis.

The authors declare that there are no conflicts of interest present.