First Investigations of Benthic Soft-walled Foraminifera and Gromiids (Protozoa) in the northwestern Sea of Japan

Cover Page

Cite item

Full Text

Open Access Open Access
Restricted Access Access granted
Restricted Access Subscription Access

Abstract

The taxonomic and quantitative composition of the meiobenthos, with an emphasis on foraminifera and gromiids were studied on the coast of Primorsky Region, northwestern part of the Sea of Japan, at water depths of 0.3–86.0 m. The Protozoa were evaluated for the first time in this region as a component of the meiobenthic communities. The protozoa are represented by four morpho-ecological groups: Ciliophora (free-moving and epibionts), both hard-shelled and soft-walled Foraminifera, and Cercozoa (class Gromiidea). The total abundance of the meiobenthos varied from 32 500 to 2 107 500 ind./m2. The presence of Protozoa was extremely variable. They were completely absent (station 62) and reached a maximum 155 000 ind./m2 (station 42). Among the protozoans, soft-walled foraminifers (SWF) and gromiids (GR) dominated. GRs accounted for up to 51–85% of the abundance of the total protozoa at some stations inPeter the Great Bay. At other stations, SWFs prevailed and reached 93–100% of the total protozoa. The most numerous hard-shelled (HSF) foraminifers and ciliates (CL) were obtained in the Vladimir Bay and at individual stations off the eastern coast of Primorsky Region. Brief descriptions with illustrations are given for 45 representatives of the SWF belonging to the families Allogromiidae and Saccamminidae, of which 22 of them are identified to the species or genus level, and 23 morphotypes are identified to the family level. The gromiid fauna is represented by six morphotypes.

Full Text

Restricted Access

About the authors

N. G. Sergeeva

Kovalevsky Institute of Biology of the Southern Seas, Russian Academy of Sciences

Author for correspondence.
Email: nserg05@mail.ru
ORCID iD: 0000-0002-3984-0918
Russian Federation, Sevastopol

O. V. Anikeeva

Kovalevsky Institute of Biology of the Southern Seas, Russian Academy of Sciences

Email: nserg05@mail.ru
ORCID iD: 0000-0003-4497-1901
Russian Federation, Sevastopol

References

  1. Гальцова В.В., Павлюк О.Н. Мейобентос бухты Алексеева (залив Петра Великого, Японское море) в условиях марикультуры гребешка. Владивосток. ИБМ ДВНЦ. 1987. Препринт № 20.
  2. Гальцова В.В., Павлюк О.Н. Сезонная динамика плотности поселения мейобентоса в Амурском заливе Японского моря // Биол. моря. 2000. Т. 20. С. 160–165.
  3. Лукина Т.Г., Тарасова Т.С. Phylum Sarcomastigophora, Class Granuloreticulosa. Список видов свободноживущих беспозвоночных дальневосточных морей России. В серии: Исследования фауны морей. Вып. 75. СПб. 2013.
  4. Павлюк О.Н., Требухова Ю.А. Мейобентос Дальневосточного государственного морского заповедника (залив Петра Великого Японского моря). Научные исследования в заповедниках Дальнего Востока Ч. П., Матер. VI Дальневост. конф. по заповедному делу, Хабаровск, 15–17 октября 2003, Хабаровск: ИВЭП ДВО РАН. 2004. С. 51–56.
  5. Павлюк О.Н., Требухова Ю.А., Шулькин В.М. Структура сообщества свободноживущих нематод в бухте Врангеля Японского моря // Биол. моря. 2003. Т. 29. С. 388–394.
  6. Павлюк О.Н., Требухова Ю.А., Чернова Е.Н. Мейобентос в условиях марикультуры приморского гребешка в бухте Миноносок (залив Петра Великого Японского моря) // Биол. моря. 2005. Т. 31. С. 329–337.
  7. Павлюк О.Н., Преображенская Т.В., Тарасова Т.С. Межгодовые изменения в структуре сообществ мейобентоса бухты Алексеева Японского моря // Биол. моря. 2001. Т. 27. С. 127–132.
  8. Преображенская Т.В., Тарасова Т.С. Донные фораминиферы некоторых районов залива Петра Великого. Распространение и экология современных и ископаемых морских организмов. Владивосток: ДВО АН СССР. 1990.
  9. Сергеева Н.Г., Аникеева О.В. Мягкораковинные фораминиферы Черного и Азовского морей. ИМБИ им. А.О. Ковалевского РАН, Симферополь: ИТ Ариал. 2018.
  10. Сергеева Н.Г., Аникеева О.В., Абибулаева А.Ш., Довгаль И.В. Новые находки мейобентосных простейших в районе Приморского шельфа Японского моря. Тез. докладов II Международной научнопрактической конференции Изучение водных и наземных экосистем: история и современность, Севастополь. РФ. Севастополь. 2022. С. 54–55.
  11. Тарасова Т.С., Преображенская Т.В. Влияние марикультуры приморского гребешка на комплексы фораминифер бухты Алексеева Японского моря // Биол. моря. 2000. Т. 26. С. 166–174.
  12. Тарасова Т.С., Преображенская Т.В. Бентосные фораминиферы бухты Миноносок залива Петра Великого (Японское море) в условиях марикультуры приморского гребешка // Биол. моря. 2007. Т. 33. С. 25–36.
  13. Тарасова Т.С., Романова А.В., Плетнев С.П., Аннин В.К. Современные комплексы бентосных фораминифер в бухте Житкова (о. Русский) залива Петра Великого Японского моря // Изв. ТИНРО. 2016. Т. 184. С. 158–167.
  14. Фадеева Н.П. Свободноживущие нематоды как компонент мейобентоса экосистем шельфа Японского моря. Автореф. дис. … канд. биол. наук. Владивосток. 2005. 40 с.
  15. Gooday A.J., Pawlowski J. Conqueria laevis gen. et sp. nov., a new soft-walled, monothalamous foraminiferan from the deep Weddell Sea // J. Mar. Biol. Assoc. U.K. 2004. V. 84. P. 919–924. https://doi.org/10.1017/S0025315404010197h
  16. Gooday A.J., Bowser S.S., Cedhagen T. et al. Monothalamous foraminiferans and gromiids (Protista) from western Svalbard: a preliminary survey // Mar. Biol. Res. 2005. V. 1. P. 290–312.
  17. Gooday A.J., Anikeeva O.V., Pawlowski J. New genera and species of monothalamous Foraminifera from Balaclava and Kazach’ya Bays (Crimean Peninsula, Black Sea) // Mar. Biodiversity. 2011. V. 41. P. 481–494. https://doi.org/10.1007/s12526-010-0075-7
  18. Hayward B.W., Le Coze F., Vachard D., Gross O. World Foraminifera Database. Monothalamea. Accessed through World Register of Marine Species. https://www.marinespecies.org/aphia.php?p=taxdetails&id=744106 on 2023-06-09
  19. Henderson, Z. Soft-walled monothalamid foraminifera from the intertidal zones of the Lorn area, north-west Scotland // Mar. Biol. Assoc. U.K. 2023. V. 103. e18. doi: 10.1017/S0025315423000061
  20. Loeblich A., Tappan H. Foraminiferal genera and their classification. New York: Van Nostrand Reinhold Co. 1987. V. 1, 2.
  21. Pawlowski J. Introduction to the molecular systematics of foraminifera // Micropaleontology. 2000. V. 46. P. 1–12.
  22. Pawlowski J., Bolivar I., Guiard-Maffia J., Gouy M. Phylogenetic position of foraminifera inferred from LSU rRNA gene sequences // Mol. Biol. Evol. 1994. V. 11. P. 929–938.
  23. Pawlowski J., Bolivar I., Fahrni J.F. et al. Molecular evidence that Reticulomixa filose is a freshwater naked foraminifer // J. Eukaryotic Microbiol. 1999. V. 46. P. 612–617.
  24. Sabbatini A., Nardelli M.P., Morigi C., Negri A. Contribution of soft-shelled monothalamous taxa to foraminiferal assemblages in the Adriatic Sea // Acta Protozool. 2013. V. 52. P. 181–192.
  25. Sergeeva N.G. Benthic Protozoa (Foraminifera, Allogromiida) as potential indicator species for the sedimentation record of the Azov–Black Sea basin bottom deposits // Paleontol. J. 2019. V. 53. P. 879–884.
  26. Sergeeva N.G., Anikeeva O.V., Gooday A.J. The monothalamous foraminiferan Tinogullmia in the Black Sea // J. Micropalaeontol. 2005. V. 24. P. 191–192.
  27. Sergeeva N.G., Revkova T.N., Ürkmez D. Meiobenthic assemblages of the Laspi Bay (Crimea, Black Sea): taxonomic diversity and quantitative development // Acta Aquat. Turc. 2023. V. 19. P. 58–70.
  28. Sergeeva N.G., Zaika V.E., Anikeeva O.V. An overview on distribution and abundance of meiobenthic foraminifera in the Black Sea // Ecol. Montenegrina. 2015. V. 2. P. 124–141.
  29. Tarasova T.S., Kamenskaya O.E., Romanova A.V. Benthic foraminifera under conditions of gas-hydrothermal activity in the Deryugin Basin, Sea of Okhotsk. Abstr. Pap. Int. Conf. “Unique Marine Ecosystems. Modern Technologies of Exploration and Conservation for Future Generations”. Vladivostok. 2016. P. 105–106.
  30. Tarasova T.S., Zykova M.V., Pitruk D.L. Modern benthic foraminifera in the water area around the Peninsula Zhitkova (Amur Bay, Sea of Japan). Proc. Russ.-China Bilateral Symp. Mar. Ecosyst. Global Change Northwest. Pac. Vladivostok. 2012. P. 105–110.
  31. Ürkmez D., Sezgin M., Sergeeva N.G. Meiobenthic research on the Black Sea shelf of Turkey: a review, Black Sea marine environment: The Turkish shelf. TUDAV Publication. № 46. Istanbul, Turkey: Turkish Marine research foundation. 2017. P. 196–226.

Supplementary files

Supplementary Files
Action
1. JATS XML
2. Fig. 1. Location of bottom sediment sampling stations in the study area in the north-western part of the Sea of Japan

Download (640KB)
3. Fig. 2. Quantitative distribution of two components of meiobenthos - Protozoa and Metazoa in the Sea of Japan off Primorsky Krai. a - settlement density of Protozoa and Metazoa; b - ratio of four morphoecological groups: Ciliophora (INF), Foraminifera with soft (MRF) and hard (TRF) shells, and Gromiida (GR) in protozoan taxocenoses at different stations

Download (380KB)
4. Fig. 3. Representatives of the genus Psammophaga: a-c - Psammophaga cf. simplora; d - Psammophaga sp. 2J; e - Psammophaga sp. 4J; f-h - Psammophaga sp. 3J. f - general view, g - anterior part of the specimen containing diatom algae, h - posterior part of the specimen filled with mineral particles

Download (773KB)
5. Fig. 4. Representatives of the family Saccamminidae: a, b - Saccamminid sp. 1J (a - general view, b - aperture); c - Saccamminid sp. 2J; d - Saccamminid sp. 3J; e - Saccamminid sp. 4J; f, g - Saccamminid sp. 5J (e - general view, g - aperture); h-l - Saccamminid sp. 6J (h - general view, i - aperture embedded in detritus, k - posterior margin, l - nucleus in posterior part); m-o - Saccamminid sp. 7 (m - general view, n, o - apertures); p-c - Saccamminid sp. 8J (p - general view, p - nucleus, c - part of cytoplasm near aperture)

Download (1MB)
6. Fig. 5. Representatives of four genera of foraminifera with soft shells: a - Vellaria-like sp. 3J; b - Vellaria cf. pellucida; c - Vellaria cf. sacculus; d - Vellaria with honeycombed cytoplasm; e - Vellaria pellucida; f - Vellaria-like sp. 2J; g-i - Micrometula sp. 1J (g - general view, h - aperture, i - nucleus); j, l - Goodayia cf. rostellata (j - general view, l - aperture, i - nucleus); k, l - Goodayia cf. rostellata (k - general view, l - aperture). 1J (g - general view, h - aperture, i - nucleus); k, l - Goodayia cf. rostellata (k - general view, l - aperture); m-o - Goodayia sp. 1J (m - general view, n - aperture, o - posterior part with nucleus); p, r - Goodayia sp. 2J (p - general view; p - aperture); s, t - Psammosphaeridae g. spp. 1J (c - general view, t - nucleus)

Download (1MB)
7. Fig. 6. Representatives of the genus Nemogullmia: a - Nemogullmia sp. 1J; b, c - Nemogullmia sp. 3J (b - general view, c - middle part with longitudinal nucleus); d, e - Nemogullmia sp. 2J (d - general view, e - aperture); f-h - Nemogullmia sp. 4J (f - general view, g, h - apertures)

Download (1MB)
8. Fig. 7. Representatives of the genus Tinogullmia: a - Tinogullmia sp. 1J; b-d - Tinogullmia sp. 2J (b - general view; c, d - apertures; e - nucleus); f-j - Tinogullmia sp. 3J, general view of two different specimens; h-l - Tinogullmia sp. 4J (h - general view; i - nucleus; k, l - apertures)

Download (992KB)
9. Fig. 8. Representatives of the family Allogromiidae: a - Allogromiid sp. 1J; b - Allogromiid sp. 2J; c - Allogromiid sp. 5J; gzh - Allogromiid sp. 3J (d - general view, e - nucleus, f, g - apertures); h, i - Allogromiid sp. 4J (h - general view, i - aperture); k, l - Allogromiid sp. 6J (k - general view, l - aperture)

Download (649KB)
10. Fig. 9. Representatives of the family Allogromiidae: a, b - Allogromiid sp. 7J (a - general view, b - aperture); c, d - Allogromiid sp. 8J (c - general view, d - aperture); e, f - Allogromiid sp. 9J (e - general view, f - aperture); g - Allogromiid sp. 11J; h-l - Allogromiid sp. 12J (h - general view, i - posterior part of the cell, k - aperture, l - nucleus); m, n - Allogromiid sp. 13J (m - general view, n - aperture); o-c - Allogromiid sp. 14J (o - general view, p - nucleus, p, s - apertures); t - Allogromiid sp. 10J

Download (972KB)
11. ig. 10. Representatives of the genus Gromia: a - Gromia sp. 1J; b - Gromia sp. 2J; c, d - Gromia sp. 3J (c - general view, d - aperture); e, f - Gromia sp. 4J (e - general view, f - aperture); g, h - Gromia sp. 5J (g - general view, h - aperture); i-l - Gromia sp. 6J (i - general view, j - aperture, l - part of the shell with cytoplasm)

Download (696KB)

Copyright (c) 2024 The Russian Academy of Sciences