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Ecology and dynamics

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Архив метки: precipitation

POPULATION INDICES AND FAUNA COMPOSITION OF SMALL MAMMALS IN THE ZEYA NATURE RESERVE AND ITS ADJACENT TERRITORIES UNDER THE INFLUENCE OF NATURE AND HYDRAULIC CONSTRUCTION

Ecology and dynamics Опубликовано 18 августа, 2025 автором admin7 ноября, 2025

Podolsky S.A., Levik L.Yu., Pavlova K.P., Chemirskaya D.S., Chervova  L.V. Population Indices and Fauna Composition of Small Mammals in the Zeya Nature Reserve and Its Adjacent Territories under the Influence of Nature and Hydraulic Construction // Ecosystems: ecology and dynamics. No 2. 2025. P. 105-130. | Abstract | PDF | Reference

 

Roe deer at the ford on the Nora River (photo by S.A.Podolsky) 2. Swimming fawns of roe deer (photo by S.A.Podolsky)
Swimming fawns of roe deer (photo by S.A.Podolsky)
Lenok, or Asiatic trout (photo by S.A.Podolsky)
Oriental stork (photo by S.A.Podolsky)

Red-crownedcranes (photo by S.A.Podolsky)
Hooded crane taking off (photo by S.A.Podolsky)
Hooded cranes (photo by S.A.Podolsky)
A hut flooded by the Bureya water reservoir (photo by S.A.Podolsky)

The construction of large water reservoirs in the Amur Region causes numerous negative environmental consequences, changing the boundaries of species’ ranges, as well as reducing the species diversity in zoocomplexes and the number of many animal species. In addition, populations and communities under the influence of reservoirs continue to experience fluctuations due to natural processes. A reliable group of indicators for studying the impact of hydroelectric construction on terrestrial animals are small mammals, such as Rodentia and Eulipotyphla, most of which undergo frequent generational changes and, therefore, have a quick response to changes in their habitats.

In this article, we consider the main natural factors influencing the dynamics of the number of Rodentia and Eulipotyphla in the Zeya Nature Reserve, as well as changes in the abundance and fauna composition of small mammal communities on the shores of the Zeya Water Reservoir and in the influence zone of the Lower Zeya Hydroelectric Complex which is currently under construction. In the reserve and on the reservoir shores, we discovered 16 Rodentia species and 6 Eulipotyphla species. The dynamics of Rodentia number was studied on the basis of data obtained in 1982-2024, namely, from the censuses conducted on 27 trap-lines, with a total volume of about 48.5 thousand spring-loaded bar trap-days. The dynamics of Eulipotyphla was studied on the basis of data from 2003-2024, i.e., the censuses conducted on 8 trap-lines, with a total volume of about 22.9 thousand pitfall trap-days. In the reserve, we picked a zone on the mountainous shores for experimental observations, and another one that included low mountains outside the shores for background observations,

The main impact factors of the hydroelectric construction on the marginal and rare species of small mammals in the upper pool of the Zeya Reservoir are the flooding of valley habitats and the isolation of small groups of animals in the remaining habitats in the estuary areas of the valleys of the reservoir’s tributaries. Due to that the fauna of Rodentia and Eulipotyphla is already significantly depleted on the shores. The following species have disappeared from the area almost entirely: long-tailed ground squirrel (Urocitellus undulatus Pallas, 1779), reed vole (Alexandromys fortis Buchner, 1889), Amur lemming (Lemmus lemmus amurensis Vinogradov, 1924), slender shrew (Sorex gracillimus Thomas, 1907), Eurasian least shrew (Sorex minutissimus Zimmermann, 1780). Meanwhile, such species as the Maximowicz’s vole (Alexandromys maximowiczii Schrenk, 1859), tundra vole (Alexandromys oeconomus Pallas, 1776), striped field mouse (Apodemus agrarius Pallas, 1771), harvest mouse (Micromys minutus Pallas, 1771), flat-skulled shrew (Sorex roboratus Hollister, 1913), and Siberian large-toothed shrew (Sorex daphaenodon Thomas, 1907) changed their “common” or “numerous” status to “very rare”. Similar changes should be expected to occur on the shores of the Nizhne-Zeyskoye Reservoir, which is currently under construction.

The most significant influence factor of a large reservoir on the background species, such as the northern red-backed vole (Myodes rutilus Pallas, 1779), grey red-backed vole (Craseomys rufocanus Sundevall, 1846), and Laxmann’s shrew (Sorex caecutiens Laxmann, 1788), is its climate impact on the biotopes of the shores. It occurs at the same time with the natural number fluctuations of small mammals associated with the main abiotic natural factors, e.g., solar activity, precipitation and temperatures during the period of most active reproduction and the beginning of vegetation (May-June), as well as with the depth of snow cover. Both Rodentia and Eulipotyphla have an inverse correlation between the population dynamic and the amount of precipitation in May-June, as well as a direct correlation between the population dynamic and average temperatures in May-June. At the same time, for the influence zone of the Zeya Reservoir, a close and direct connection has been established between long-term changes in solar activity and precipitation in May-June.

Aside from short 3-4-year fluctuations, Rodentia species go through a long, almost 30-year-long cycle, occurring in an antiphase with similar fluctuations of the Wolf number curve; the population dynamic of Eulipotyphla is in an antiphase with 10-11-year-long cycles of solar activity.

The coasts of the Zeya Reservoir, we have discovered the deepest depressions and maximum amplitudes of population fluctuations both for Rodentia and Eulipotyphla. Moreover, shores such as these tend to become a zone of low abundance of small mammals. In Zeya, average annual losses compared to the background indicators are 8.7-16.2% for Rodentia, and 22.1% for Eulipotyphla. This causes deterioration in the food supply of many birds of prey and Mustelidae that feed on small mammals.

We have established that hydroelectric construction in the north of the Amur Region significantly reduces the species abundance and productivity of small mammal communities, which entails further losses in biodiversity. Due to both natural and anthropogenic factors, the coasts of large manmade water reservoirs turn into zones of reduced abundance of Rodentia and Eulipotyphla.

Acknowledgements. We are grateful to the management of the Zeya Nature Reserve for their help with organization and research.

Funding. This work was carried out for the Water Problems Institute of the Russian Academy of Sciences, theme No. FMWZ-2025-0002 “Researching the Formation Processes of the Surface and Ground Waters Quality, Natural and Anthropogenic Mechanisms of Ecological Changes in the Water Bodies, Development of Methods and Technologies for Managing Water Resources and Water Quality”, theme No. 1-22-37-1 of the Zeya Nature Reserve “Dynamics of Phenomena and Processes in the Ecosystems of the Zeya Nature Reserve and the Tokinsko-Stanovoy National Park”, state task No. 121051100137-4 of the Lomonosov Moscow State University (MSU) “Spatio-temporal Organization of Ecosystems under Environmental Change”; additionally, it was supported by the Development Program of the Interdisciplinary Scientific and Educational School of MSU “Future of the Planet and Global Environmental Change” and the Development Program of MSU (P. 1220).

Keywords: Rodentia, Eulipotyphla, fauna composition, population dynamic, influence zone of water reservoir, solar activity, precipitation, air temperature.

DOI: 10.24412/2542-2006-2025-2-104-129

EDN: YUUIHG

Метки: air temperature, Eulipotyphla, fauna composition, influence zone of water reservoir, population dynamic, precipitation, Rodentia, solar activity

ORNITHOCOMPLEXES OF ARTIFICIAL RESERVOIRS IN THE CENTRAL AND SOUTHERN RUSSIA UNDER THE CHANGES IN ANTHROPOGENIC AND CLIMATIC IMPACTS

Ecology and dynamics Опубликовано 27 декабря, 2023 автором admin8 апреля, 2024

Shapovalova I.B. Ornithocomplexes of Artificial Reservoirs in the Central and Southern Russia under the Changes in Anthropogenic and Climatic Impacts // Ecosystems: ecology and dynamics. No 4. 2023. P. 140-176. | Abstract | PDF | Reference

 

 

A chick of the European robin (Erithacus rubecula; photo by I.B.Shapovalova)
Eurasian siskin (Spinus spinus; photo by I.B.Shapovalova)
Chicks of the Eurasian spoonbill (Platalea leucorodia; photo by I.B.Shapovalova)
Black-winged stilt (Himantopus himantopus; photo by I.B.Shapovalova)

A pair of steppe eagles (Aquila nipalensis) on a nest (photo by I.B.Shapovalova)
Great white pelican (Pelecanus onocrotalus; photo I.B.Shapovalova)
A nesting black-winged pratincole (Glareola nordmanni; photo by I.B. Shapovalova)
Male little bittern (Ixobrychus minutus; photo by I.B.Shapovalova)

Male ferruginous duck (Aythya nyroca; photo by I.B.Shapovalova)
Male European honey buzzard (Pernis apivorus; photo by I.B.Shapovalova)
Female graylag goose with chicks (Anser anser; photo by I.B.Shapovalova)
Male black-crowned night-heron (Nycticorax nycticorax; photo by I.B.Shapovalova).

In this paper we have analyzed the state of ornithocomplexes in the swamp and wetland ecosystems of regulated sections of small rivers and artificial storage reservoirs in the central and southern regions of Russia. The analysis was carried out according to the developed methodology of transformation of coastal ecosystems in intrazonal conditions. We have characterized floodplain ornithocomplexes in different natural zones of the European part of Russia, such as mixed and broad-leaved forests, forest-steppes, steppes and semi-deserts. Data of seasonal and annual dynamics are provided for the main indicators of transformation, such as species diversity and species abundance. Changes in birds’ species composition and abundance in the swamp and wetland complex were studied in connection with the changing anthropogenic (water management) and climatic impacts.

Keywords: Ivanovo Region, Tula Region, monitoring, dynamics, assessment, impact factor, steppe zone, zone of mixed and broad-leaved forests, forest-steppe zone, floodplain ecosystems, river floodplain, artificial reservoir, anthropogenic impact, intrazonal landscape, aridization, hydrological regime, climate, precipitation, humidity, species composition, population number, population density, species abundance, ornithocomplexes, bird population, rare species, Red Data Book, swamp and wetland complex.

Funding. This work was carried out as part of the fundamental research No. FMWZ-2022-0002 of the Water Problems Institute of the Russian Academy of Sciences planned for 2022-2024 “Studies of Geo-Ecological Processes in Land Hydrological Systems, Formation of Surface and Groundwater Quality, Problems of Water Resources Management and Water Use under Climate Change and Anthropogenic Impact”, state registration No. AAAA-A18-118022090104-8.

DOI: 10.24412/2542-2006-2023-4-140-176

EDN: DQYCCB

Метки: anthropogenic impact, aridization, artificial reservoir, assessment, bird population, climate, dynamics, floodplain ecosystems, forest-steppe zone, humidity, hydrological regime, impact factor, intrazonal landscape, Ivanovo Region, monitoring, ornithocomplexes, population density, population number, precipitation, rare species, Red Data Book, river floodplain, species abundance, species composition, steppe zone, swamp and wetland complex, Tula region, zone of mixed and broad-leaved forests

DYNAMICS OF ORNITHOCOMPLEXES OF THE FOREST AND FOREST-STEPPE ZONES OF THE IVANOVO AND TULA REGIONS WHEN CHANGING BACKGROUND CLIMATE AND WATER CONTENT OF RIVERS IN CONDITIONS OF ANTHROPOGENIC IMPACT

Ecology and dynamics Опубликовано 30 декабря, 2022 автором admin3 апреля, 2023

Shapovalova I.B. Dynamics Of Ornithocomplexes Of The Forest And Forest-Steppe Zones Of The Ivanovo And Tula Regions When Changing Background Climate And Water Content Of Rivers In Conditions Of Anthropogenic Impact // Ecosystems: Ecology and Dynamics. No. 4. 2022. P. 50-70. | Abstract | PDF | Reference |

 

Common lizard (Lacerta vivipara), June 2021 (Photo by I.B.Shapovalova)
Common viper (Vipera berus), July 2022 (Photo by I.B.Shapovalova)
Chick of the European nightjar (Caprimulgus europaeus), taken on 23/07/2022, in a pine forest with the lower layer formed by blueberries, near the margine, in the area of the Sakhtysh-Rubskoye peat mining (Photo by M.E.Koshelev)
Male wheatear (Oenanthe oenanthe), June 2019 (Photo by I.B.Shapovalova)

Common morel (Morchella esculenta) in the clearing near the Bogatyrevo Village (Photo by I.B.Shapovalova)
Yellowhammer (Emberiza citrinella), May 2022 (Photo by I.B.Shapovalova)
The nest of black-tailed godwits (Limosa limosa) in the fallow field near the Bogatyrevo Village, May 2022 (Photo by I.B.Shapovalova)
A pair of black-tailed godwits (Limosa limosa) in the fallow field near the Bogatyrevo Village, May 2022 (Photo by I.B.Shapovalova)

Globeflower (Trollius europaeus) on a mesophilic meadow near the Bogatyrevo Village, May 2022 (Photo by I.B.Shapovalova)
Green tiger beetle (Cicindela campestris) on a country road along the field, near the Bogatyrevo Village, in the area of the Sakhtysh-Rubskoye peat mining, May 2022 (Photo by I.B.Shapovalova)
Red-tailed bumblebee (Bombus lapidarius) on a mesophilic meadow near the Bogatyrevo Village, May 2022 (Photo by I.B.Shapovalova)
A young common moorhen (Gallinula chloropus) on the Ptan River in Kurkinsky District, Tula Region, July 2019 (Photo by I.B.Shapovalova)

In this article we present the results of monitoring of ornithocomplexes of floodplain ecosystems of the basins of small rivers of Tula and Ivanovo regions on the example of the rivers Ptan and Vyazma for the period 2019-2022. There is given a characteristic of the composition and structure of the floodplain ornithocomplexes of small rivers of the zone of mixed forests and forest-steppe zone. The analysis of seasonal and multi-annual dynamics of the floodplain ornithocomplex is according to the main transformation indicators (species diversity and abundance). The previously developed methodology for assessing the transformation of coastal ornithocomplexes of regulated sections of small rivers located in intrazonal conditions has been tested. The relationship between the species composition and abundance of coastal ornithocomplexes has been established.

Keywords: Russia, Ivanovo Region, Tula region, monitoring, dynamics, assessment, impact factor, zone of mixed and broad-leaved forests, forest-steppe zone, floodplain ecosystems, river floodplain, intrazonal landscape, aridization, hydrological regime, climate, precipitation, humidity, species composition, number, population density, abundance, ornithocomplexes, population, rare species, Red Book, swamp-near-water complex.

Acknowledgements. The author would like to thank the chief editor and reviewers of the “Ecosystems: Ecology and Dynamics” for their assistance with this publication. The author also expresses a special gratitude to Zh.V. Kuzmina and E.I. Tobolova.

Funding. The work was carried out for the Water Problems Institute of the Russian Academy of Sciences as part of the research work for 2022-2024 “Study of Geoecological Processes in Hydrological Systems of Land, Formation of the Quality of Surface and Ground Waters, Problems of Water Resources Management and Water Use under Conditions of Climate Change and Anthropogenic Impact”, No. FMWZ-2022-0002, State Registration No. AAAA-A18-118022090104-8.

DOI: 10.24412/2542-2006-2022-4-50–70

EDN: JWYDZG

 

Метки: abundance, aridization, assessment, climate, dynamics, floodplain ecosystems, forest-steppe zone, humidity, hydrological regime, impact factor, intrazonal landscape, Ivanovo Region, monitoring, number, ornithocomplexes, population, population density, precipitation, rare species, Red Book, river floodplain, Russia, species composition, swamp-near-water complex, Tula region, zone of mixed and broad-leaved forests

INDICATORS OF CHANGES IN POPULATION GROUPS OF MAMMALS IN THE INFLUENCE AREA OF THE ZEYA RESERVOIR UNDER THE IMPACT OF NATURAL AND ANTHROPOGENIC FACTORS

Ecology and dynamics Опубликовано 26 сентября, 2022 автором admin30 декабря, 2022

Podolsky S.A., Domanov T.A., Krasikova E.K.,  Levik L.Yu., Pavlova K.P. Indicators of Changes in Population Groups of Mammals in the Influence Area of the Zeya Reservoir under the Impact of Natural and Anthropogenic Factors // Ecosystems: Ecology and Dynamics. No. 3. 2022. P. 104-119. | Abstract | PDF | Reference |

 

A male Siberian musk deer in the Ezo spruce forest (photo by S. Podolsky, taken with a camera trap)
Female Siberian musk deer (photo by T. Domanov)
Male elk in the valley of the Motovaya River during the rut (photo by S. Podolsky, taken with a camera trap)
Female elks in the valley of the Gilyuy river (photo by S. Podolsky, taken with a camera trap)

A female elk in the oak forests of the Zeya Gorge (photo by S. Podolsky, taken with a camera trap)
Male Siberian roe deer on the shore of the Zeya water reservoir (photo by S. Podolsky)
Male Siberian roe deer in the Zeya Gorge in May with still soft horns (photo by S. Podolsky, taken with a camera trap)
A female Siberian roe deer with a one-year-old fawn (photo by S. Podolsky)

Female Siberian roe deer in the valley of the Gilyui river in the late fall (photo by S. Podolsky, taken with a camera trap)
Sable in the mountain tundra with thickets of dwarf cedar (photo by S. Podolsky)
Sable with a vole it’s caught on the first snow in the Ezo spruce forest in late September (photo by S. Podolsky)
The red-backed vole is one of the main prey of sable in the Zeya Reserve (photo by S. Podolsky)

Using the long-term data of the Zeya Nature Reserve, we accessed the natural and anthropogenic factors and their significance for the dynamics of the number of population groups of mammals in the influence area of the Zeya reservoir. Siberian musk deer (Moschus moschiferus), elk (Cervus canadensis), Siberian roe deer (Capreolus pygargus) and sable (Martes zibellina) were selected as model species. The anthropogenic part of population dynamics is defined on the basis of a comparative analysis of the long-term “test” (shore of the Zeya reservoir within the reserve territory), “control” (reserve territory outside the shores) and “background” (Amur Region) observations. We offer a step-by-step algorithm for studying mammals in the influence area of any large hydraulic structures. The first step is to restore the chronology of changes in the population density of the model species, then to determine the time needed for each species to partially adapt to the reservoir, which is as follows: musk deer – 30 years, elk – 25 years, roe deer – 28 years, sable – 20 years. The second step is to determine the leading natural factors of population dynamics. For musk deer, elk and roe deer the defining factor is precipitation in the early growing season of May and June, which determines the amount of winter food supply and the survival rate of young animals. For sable the factor is the dynamics of the total number of mouse-like rodents, which has a significant negative correlation with the cycles of solar activity and long-term trends of spring-summer precipitation. The third step is to determine the main factors of the influence that the reservoir causes on the population dynamics of the model species. For musk deer this is deteriorating conditions of protection, increasing mortality along the shoreline of an artificial reservoir due to various injuries, predators and epizootics. For elks this is the poaching activities and wolves that hunt them on the surface of the frozen reservoir. For roe deer this is the disrupted routes of seasonal migration, poaching and increasing hunting pressure from the predators. For sable it is the microclimatic influence of the reservoir that causes an increase in morbidity and depletion of the food supply due to decreasing numbers of mouse-like rodents. The fourth step is to identify common signs of the hydro construction impact on any mammals. Each model species found in the influence area of the Zeya reservoir experiences prolonged population depressions, low level of correlation between population dynamics and changes in the main limiting natural factors, reduced population density, and increased amplitude of population fluctuations. The fifth step is to quantify the impact the reservoir has on the model species. We used such index as the difference between the average (over the adaptation period) population density on the “control” plots and on the reservoir coast, in % of the “control” level. The average annual losses were 51.8% for Siberian musk deer, 51.2% for elk, 78.1% for Siberian roe deer, and 35.4% for sable. While being under protection, each of these model species was able to partially adapt to the Zeya reservoir over 20-30 years; their population dynamics generally recovered, but the density and migration activity remained significantly lower than it was before the construction of the reservoir.

Keywords: hydro construction, impact assessment, model species, Siberian musk deer, elk, Siberian roe deer, sable, mouse-like rodents, population dynamics, solar activity, precipitation.

DOI: 10.24412/2542-2006-2022-3-104-119

EDN: KJNMJP

Метки: elk, hydro construction, impact assessment, model species, mouse-like rodents, population dynamics, precipitation, sable, Siberian musk deer, Siberian roe deer, solar activity

METHODOLOGICAL ASPECTS OF STUDYING POPULATION DYNAMICS OF SABLE (MARTES ZIBELLINA L., 1758) IN THE ZONE OF INFLUENCE OF THE ZEYA RESERVOIR

Ecology and dynamics Опубликовано 30 декабря, 2020 автором admin25 марта, 2021

Podolskiy S.A., Levik L.Yu.,  Pavlova K.P., Krasikova E.K. Methodological Aspects of Studying Population Dynamics of Sable (Martes zibellina L., 1758) in the Zone of Influence of the Zeya Reservoir // Ecosystems: ecology and dynamics. 2020. Vol. 4. No 4. Pp. … Read next

Метки: evaluation of the effect, population dynamics, precipitation, rodents, sable, solar activity, water engineering

ECOLOGICAL AND GEOGRAPHICAL ASPECTS OF THE ARAL SEA CRISIS. PART 2. RESEARCH OF CLIMATE DYNAMICS AND DRIED-UP SEA BOTTOM

Ecology and dynamics Опубликовано 3 июля, 2020 автором admin5 октября, 2020

Novikova N.M. Ecological and Geographical Aspects of the Aral Sea Crisis. Part 2. Research of Climate Dynamics and Dried-Up Sea Bottom // Ecosystems: ecology and dynamics. 2020. Vol. 4. No. 2. P. 96-170. | Abstract | PDF | Reference | … Read next

Метки: Aral sea, assessment, changes, climate, dry bottom, dust storms, dusty snowfall, features of plant species development in forest plantations, natural overgrowth, phytomelioration technologies, precipitation, salt and dust transfer, soil salinization, sustainable species, temperature, trends, types of successions

CLIMATE CHANGE IN THE ZONE OF DISTRIBUTION OF SALTED SOILS OF CRYOARIDE REGIONS IN SOUTH OF EAST SIBERIA

Ecology and dynamics Опубликовано 24 сентября, 2019 автором admin17 декабря, 2019

Chernousenko G.I., Khitrov N.B. CLIMATE CHANGE IN THE ZONE OF DISTRIBUTION OF SALTED SOILS OF CRYOARIDE REGIONS IN SOUTH OF EAST SIBERIA // ECOSYSTEMS: ECOLOGY AND DYNAMICS, 2019, Vol. 3, No. 3, Pp. 5-57 | Abstract | PDF | Reference … Read next

Метки: air temperature, climate aridization, continentality coefficient, evaporation, moisture coefficient, precipitation, statistical indicators of climatic characteristics, trends in climatic characteristics

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