Dynamics of the aboveground phytomass of the Ob floodplain meadows in the area of the Tomsk carbon polygon (Kaibasovo)

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Abstract

At the Kaibasovo site (Tomsk carbon polygon), during 2017-2021, studies of multi-year changes in the vegetation of the floodplain meadows of the Ob river were carried out on 4 permanent sample plots to determine the effect of weather conditions and floods on the formation of aboveground phytomass.

The research area is located within the southern taiga subzone of the forest zone and belongs to the northern part of the Shegarsky section of the floodplain. Permanent sample plots were laid out on relief elements of different flooding conditions - high ridges, their slopes, and depressions. Grass, forb and sedge phytocenoses were studied. In the phase of maximum development of the herbage, geobotanical descriptions and sampling of aboveground phytomass (including litter and rags) were carried out. Descriptions were made on an area of 100 m2, the herbage was mowed from squares of 0.25 m2 four times. Under field conditions, the mowing was sorted by types, dried and weighed. The productivity of the herbage was determined by summing up the masses of particular types. Further, the average indicators of phytocenosis such as the composition of dominant species, the total number of species, the composition and ratio of various fractions (agrobiological and ecological groups) were determined in terms of 1 m2 of aboveground mass.

Weather conditions and meadow flooding regime for the growing seasons of 2017-2021 were characterized on the basis of data from the Molchanovo meteorological station and the Nikolskoe gauging station. We took into account the average ten-day and monthly values of temperature and precipitation as well as HTC for the entire growing season. This provided the possibility to select wet and dry, warm and relatively cold seasons as a basis for analyzing the phytomass dynamics. Based on the results of a general evaluation of hydroclimatic conditions, 2017-2018 have been assessed as warm, humid, mid-water, 2019 - extremely dry and hot, when the floodplain was not flooded, 2020 - slightly dry mid-water, 2021 - cold and dry with a relatively high flood.

It was found that the dynamics of the meadow vegetation of the Kaibasovskiy section of the Ob floodplain is determined by the influence of the weather conditions of the current and previous years, the nature of the flood, and characterized by changes in the above-ground mass, the ratio of dominant species, the composition of ecological and biological groups of species in the herbage.

The change in the state of the cereal community, developed on a high ridge, was due to the dynamics of weather conditions. The range of productivity changes over the years was the smallest. This was due to the good adaptability of the phytocenosis provided by a variety of vegetatively mobile long-rhizome grasses from the ecological groups of xeromesophytes, mesophytes and eumesophytes. The state of the other three communities studied was determined not only by weather conditions, but also by a more important factor such as flooding of meadows during seasonal floods. Their productivity turned out to be generally higher and the range of fluctuations in the amount of aboveground phytomass over the years was wider (on average, twice).

The study of the relationship between the productivity of the herbage and the destruction of the aboveground part of the mortmass and hydroclimatic conditions showed that at all altitudinal levels of the floodplain in arid conditions, there is a decrease in the mass of the herbage of meadows and the accumulation of dead plant residues. The aboveground phytomass of the communities of the upper and middle altitude levels increases with the increase in environmental humidity, while the total aboveground mass increases, but the proportion of dead plant matter decreases.

The increase of aboveground phytomass of sedge phytocenoses of medium-low and low levels occurs in humid, warm, mid-water years, while an increase in the abundance of moisture-loving grasses and sedges in the herbage is observed. The accumulation of the amount of dead plant matter is also observed in years with prolonged stagnation of water. The decomposition of litter and rags is most active in humid and warm spring.

About the authors

Lyudmila Fedorovna Shepeleva

Federal State Autonomous Educational Institution of Higher Education "National Research Tomsk State University, Tomsk;
Sakhalin Research Institute of Agriculture

Author for correspondence.
Email: shepelevalf@mail.ru

Larisa Gennad'evna Kolesnichenko

Federal State Autonomous Educational Institution of Higher Education "National Research Tomsk State University, Tomsk

Email: arisiy@inbox.ru

Marina Sergeevna Pudova

Federal State Autonomous Educational Institution of Higher Education "National Research Tomsk State University, Tomsk

Email: marina.teslinova@gmail.com

References

  1. Аржанова Н.М., Давлетшин С.Г., Дементьева Т.В., Клещенко Л.К., Коршунова Н.Н. 2020. Погода на территории Российской Федерации в 2019 году. Отдел климатологии. 34 с. [Arzhanova N.M., Davletshin S.G., Dementieva T.V., Kleshchenko L.K., Korshunova N.N. 2020. Weather on the territory of the Russian Federation in 2019. Department of Climatology. 34 p]
  2. Биологическая продуктивность травяных экосистем. Географические закономерности и экологические особенности/Титлянова А.А., Базилевич Н.И., Снытко В.А. и др. Новосибирск: Наука. 1988. 134 с.[ Biological productivity of grass ecosystems. Geographical patterns and ecological features / Titlyanova A.A., Bazilevich N.I., Snytko V.A. etc. Novosibirsk: Nauka. 1988. 134 p.]
  3. Булыгина О.Н., Коршунова Н.Н., Дементьева Т.В., Клещенко Л.К., Давлетшин С.Г. 2018. Погода на территории Российской Федерации в 2017году // Федеральная служба по гидрометеорологическому мониторингу окружающей среды, 55 с. URL http://meteo.ru/pogoda-i-klimat/93-klimaticheskie-usloviya/179-klimaticheskie-usloviya-na-territorii-rossii [Bulygina O.N., Korshunova N.N., Dementieva T.V., Kleshchenko L.K., Davletshin S.G. 2018. Weather on the territory of the Russian Federation in 2017 // Federal Service for Hydrometeorological Monitoring of the Environment, 55 p. URL http://meteo.ru/pogoda-i-klimat/93-klimaticheskie-usloviya/179-klimaticheskie-usloviya-na-territorii-rossii ].
  4. Зверева Г.К. 2022. Динамика надземной фитомассы в сообществах Приобской лесостепи и Северной Кулунды при заповедовании // Проблемы ботаники Южной Сибири и Монголии. Т. 21, № 1. С. 81-85. [Zvereva G.K. 2022. Dynamics of aboveground phytomass in the communities of the Ob River forest-steppe and Northern Kulunda during protective regime //Problems of botany of Southern Siberia and Mongolia. Vol. 21, No. 1. Рр. 81-85.]
  5. Изучение и сохранение пойменных лугов: материалы Международного совещания, Калуга, 26-28 июня 2013 года. 2013. Калуга: ООО «Ноосфера». 180 с. [Study and conservation of floodplain meadows: Proceedings of the International Meeting, Kaluga, June 26-28, 2013. 2013. Kaluga: Noosphere LLC. 180 p.]
  6. Коршунова Н.Н., Дементьева Т.В., Клещенко Л.К., Давлетшин С.Г. 2019. Погода на территории Российской Федерации в 2018году // Федеральная служба по гидрометеорологическому мониторингу окружающей среды URL. http://meteo.ru/pogoda-i-klimat/93-klimaticheskie-usloviya/179-klimaticheskie-usloviya-na-territorii-rossii [Korshunova N.N., Dementieva T.V., Kleshchenko L.K., Davletshin S.G. 2019. Weather on the territory of the Russian Federation in 2018 // Federal Service for Hydrometeorological Monitoring of the Environment URL. http://meteo.ru/pogoda-i-klimat/93-klimaticheskie-usloviya/179-klimaticheskie-usloviya-na-territorii-rossii]
  7. Коршунова Н.Н., Булыгина О.Н., Разуваев В.Н., Давлетшин С.Г. 2019. Оценки экстремальности температурного режима и режима осадков для территории РФ и ее регионов в 2018 году // Федеральная служба по гидрометеорологическому мониторингу окружающей среды. URL http://meteo.ru/pogoda-i-klimat/196-extremclim [Korshunova N.N., Bulygina O.N., Razuvaev V.N., Davletshin S.G. 2019. Estimates of the extremes of the temperature regime and precipitation regime for the territory of the Russian Federation and its regions in 2018 // Federal Service for Hydrometeorological Monitoring of the Environment. URL http://meteo.ru/pogoda-i-klimat/196-extremclim]
  8. Львов Ю.А., Шепелева Л.Ф., Лапшина Е.Д. 1987. Оценка пойменных лугов по флуктуационной способности их растительного покрова // Бот.журн. Т. 72, № 5. С. 599–609. [Lvov Yu.A., Shepeleva L.F., Lapshina E.D. 1987. Assessment of floodplain meadows by the fluctuation ability of their vegetation cover // Bot.journal. Vol. 72, No. 5. pp. 599-609]
  9. Львов Ю.А. 1963. К характеристике растительности поймы реки Оби // Труды Том. ун-та. Т. 152. С. 258–267. [Lvov Yu.A. 1963. On the characteristics of vegetation of the floodplain of the Ob River // Trudy Vol. un-ta. T. 152. pp. 258-267.]
  10. Программа и методика биогеоценологических исследований. 1974. М.: Наука. 403 с. [Program and methodology of biogeocenological research. 1974. Moscow: Nauka. 403 pp.]
  11. Продуктивность луговых сообществ. 1978. Л.: Наука. 287 с. [Productivity of meadow communities. 1978. L.: Nauka. 287 p.]
  12. Продуктивность травяных экосистем: справочник. 2020 / составители А.А. Титлянова, С.В. Шибарева. М.: ООО «Издательство МБА». 100 с. [Productivity of grass ecosystems: guide. 2020 / compiled by A.A. Titlyanova, S.V. Shibareva. M.: IBA Publishing House LLC. 100 p.]
  13. Работнов Т.А. 1974. Луговедение. M.: Изд-во Московского гос. ун-та. 384 с. [Rabotnov T.A. 1974. Meadow science. M.: Publishing house of the Moscow State University. 384 p]
  14. Раменский Л.Г. 1938. Введение в комплексное почвенно-геоботаническое исследование земель. М.: Сельхозгиз. 620 с. [Ramensky L.G. 1938. Introduction to the complex soil-geobotanical study of lands. Moscow: Selhozgiz. 620 pp.]
  15. Раменский Л.Г., Цаценкин И.А., Чижиков О.Н., Антипин Н.А. 1956. Экологическая оценка кормовых угодий по растительному покрову. М.: Изд-во сельскохозяйственной литературы. 472 с. [Ramensky L.G., Tsatsenkin I.A., Chizhikov O.N., Antipin N.A. 1956. Ecological assessment of forage lands by vegetation cover. M.: Publishing house of agricultural literature. 472 p.]
  16. Сельскохозяйственный энциклопедический словарь / Под ред. В. К. Месяца. 1989. М.: Сов. Энциклопедия. 656 с. [Agricultural Encyclopedic Dictionary / Ed. V.K. Months. M.: Sov. encyclopedia, 1989. 656 p.]
  17. Скулкин М.И. 1992. Продуктивность пойменных лугов и ее динамика // Природа поймы нижней Оби. Наземные экосистемы. Екатеринбург.: УрО РАН. Т. 1. С. 76-91. [Skulkin M.I. 1992. Productivity of floodplain meadows and its dynamics // Nature of the floodplain of the Lower Ob. Terrestrial ecosystems. Yekaterinburg.: UrO RAS. Vol. 1. pp. 76-91.]
  18. Титлянова А.А., Косых Н.П., Миронычева-Токарева Н.П., Романова И.П. 1996. Подземные органы растений в травяных экосистемах. Н.: Наука. 128 с. [Titlyanova A.A., Kosykh N.P., Mironycheva-Tokareva N.P., Romanova I.P. 1996. Underground plant organs in grass ecosystems. N.: Nauka. 128 p.]
  19. Тюрин В.Н. 2017. Результаты длительных наблюдений за динамикой продуктивности травяных сообществ прибрежных отмелей (Сургутский участок реки Оби) // Изв. Самарского науч. центра РАН. Т. 19. №2(3). С. 570-577. [Tyurin V.N. 2017. The results of long-term observations of the productivity dynamics of grass communities of coastal shoals (Surgut section of the Ob River) // Izv. Samara Scientific Center of the Russian Academy of Sciences. Vol. 19. No. 2(3). pp. 570-577.]
  20. Тюрин В.Н. 2018. Опыт оценки разногодичной динамики продуктивности травяных сообществ поймы реки Малая Сосьва (заповедник «Малая Сосьва») с учетом погодно-климатических и гидрологических особенностей // Динамика окружающей среды и глобальные изменения климата Т. 9. № 2. С. 17-27. [Tyurin V.N. 2018. The experience of estimating the aboveground productivity dynamics of grass communities in the Malaya Sosva River floodplain (Nature Reserve "Malaya Sosva") taking into account weather, climate and hydrological features // Environmental dynamics and global climate change. V. 9. № 2. P. 17-27.]
  21. Черепинская А.Н., Шепелева Л.Ф. 2017. Флуктуации пойменных лугов реки Большой Юган // Вестник КрасГАУ. № 12. Биологические науки. С. 170-178. [Cherepinskaya A.N., Shepeleva L.F. 2017. Fluctuations of floodplain meadows of the Bolshoy Yugan River // Bulletin of KrasGAU. № 12. Biological Sciences. pp. 170-178.]
  22. Шепелева Л.Ф. 1986. О влиянии половодья на продуктивность лугов поймы //Экология. №2. – С. 3-8. [Shepeleva L.F. 1986. On the effect of high water on the productivity of floodplain meadows //Ecology. No. 2. – pp. 3-8]
  23. Шепелева Л.Ф., Пашнева Г.Е., Московкина Е.В., Несветайло В.Д. 1995. Влияние динамики экологических факторов на продуктивность луговых фитоценозов и годичный прирост древесных растений в пойме Средней Оби // сибирский экологический журнал. №4. С. 368-372. [Shepeleva L.F., Pashneva G.E., Moskovkina E.V., Nesvetailo V.D. 1995. Influence of dynamics of ecological factors on productivity of meadow phytocenoses and annual growth of woody plants in the floodplain of the Middle Ob // Siberian Ecological journal. No. 4. pp. 368-372.]
  24. Шепелева Л.Ф. 2019. Структура и динамика луговых сообществ поймы Средней Оби. Томск: Изд-во Том. ун-та. 348 с.[ Shepeleva L.F. Structure and dynamics of meadow communities of the floodplain of the Middle Ob. 2019. Tomsk: Publishing House Vol. un-ta. 348 p.]
  25. Шумилова Л.В. 1962. Ботаническая география Сибири. Томск: Изд-во Томского гос. ун-та. 439 с. [Shumilova L.V. 1962. Botanical geography of Siberia. Tomsk: Publishing House of Tomsk State University. 439 p.]
  26. Altome A. I., Hou L., Yan R., Xin X., Zainelabdeen Y. 2020. The Joint Effect of Grazing Intensity and Soil Factors on Aboveground Net Primary Production in Hulunber Grasslands Meadow Steppe // Agriculture. V. 10 (263). doi: 10.3390/agriculture10070263
  27. Hossain L., Kabir H., Nila U. S., Rubaiyat A. 2021. Response of grassland net primary productivity to dry and wet climatic events in four grassland types in Inner Mongolia // Plant-Environment Interactions. V. 2 (5). PP. 250-262. doi: 10.1002/pei3.10064
  28. Moore P. E., van Wagtendonk J. W., Yee J. L., McClaran M. P., Cole D. N., McDougald N. K., Brooks M. L. 2013. Net primary productivity of subalpine meadows in yosemite national park in relation to climate variability // Western North American Naturalist. V. 73(4). PP. 409–418. URL. http://www.jstor.org/stable/24644074 (the data of access: 1 Mar. 2022).
  29. Quan Q., Zhang F., Meng C., Ma F., Zhou Q., Sun F., Niu S. 2020. Shifting biomass allocation determines community water use efficiency under climate warming // Environmental Research Letters. V.15. doi: 10.1088/1748-9326/aba472
  30. Rothero, E., Lake, S. and Gowing, D. (eds) 2016. Floodplain Meadows – Beauty and Utility. A Technical Handbook. Milton Keynes, Floodplain Meadows Partnership. UK: The Open University PP. 10-24, 38-55
  31. Thornley J.H.M., Cannell M.G.R. 1997. Temperate Grassland Responses to Climate Change: an Analysis using the Hurley Pasture Model. // Annals of Botany. V. 80. PP. 205-221. doi: 10.1006/anbo.1997.0430
  32. Zelnik I., Carni A. 2013. Plant species diversity and composition of wet grasslands in relation to environmental factors // Biodiversity and Conservation. V. 22 (10). doi: 10.1007/s10531-013-0448-x
  33. Zhan L., Gao J., Tang Z., Jiao K. 2021. Quantifying the ecosystem vulnerability to drought based on data integration and processes coupling // Agricultural and Forest Meteorology. V. 301-302. doi:10.1016 /j. agrformet.2021.1083
  34. Zhang B., Cadotte M., Chen S., Tan X., You C., Ren T., Chen M., Wang S., Li W., Chu C., Jiang L., Bai Y., Huang J., Han X.-G. 2019. Plants alter their vertical root distribution rather than biomass allocation in response to changing precipitation // Ecology. V. 100. doi: 10.1002/ecy.2828
  35. Zhang F., Quan Q., Song B., Sun J., Chen Y., Zhou Q., Niu S. 2017. Net primary productivity and its partitioning in response to precipitation gradient in an alpine meadow // Scientific Reports. V. 7(1). doi: 10.1038/s41598-017-15580-6

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