Moldova's Experience with Positive Incentive Measures
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Russia's Boreal Forests
Forest Area Key Facts & Carbon Emissions Russia’s Boreal Forests from Deforestation Forest location and brief description Russia is home to more than one-fifth of the world’s forest areas (approximately 763.5 million hectares). The Russian landscape is highly diverse, including polar deserts, arctic and sub-arctic tundra, boreal and semi-tundra larch forests, boreal and temperate coniferous forests, temperate broadleaf and mixed forests, forest-steppe and steppe (temperate grasslands, savannahs, and shrub-lands), semi-deserts and deserts. Russian boreal forests (known in Russia as the taiga) represent the largest forested region on Earth (approximately 12 million km2), larger than the Amazon. These forests have relatively few tree species, and are composed mainly of birch, pine, spruce, fir, with some deciduous species. Mixed in among the forests are bogs, fens, marshes, shallow lakes, rivers and wetlands, which hold vast amounts of water. They contain more than 55 per cent of the world’s conifers, and 11 per cent of the world’s biomass. Unique qualities of forest area Russia’s boreal region includes several important Global 200 ecoregions - a science-based global ranking of the Earth’s most biologically outstanding habitats. Among these is the Eastern-Siberian Taiga, which contains the largest expanse of untouched boreal forest in the world. Russia’s largest populations of brown bear, moose, wolf, red fox, reindeer, and wolverine can be found in this region. Bird species include: the Golden eagle, Black- billed capercaillie, Siberian Spruce grouse, Siberian accentor, Great gray owl, and Naumann’s thrush. Russia’s forests are also home to the Siberian tiger and Far Eastern leopard. -
THE KAZAKH STEPPE Conserving the World's Largest Dry
THE KAZAKH STEPPE Conserving the world’s largest dry steppe region Photo: Chris Magin, IUCN Saryarka is an internationally significant mosaic of steppe and wetlands The Dry Steppe Region The steppe grasslands of Eurasia were once among the most extensive in the world, stretching from eastern Romania, Moldova and Ukraine in eastern Europe (often referred to as the Pontic steppe) east through Kazakhstan and western Russia). Together, the Pontic and Kazakh steppes, often collectively referred to as the Pontian steppe, comprise about 24% of the world’s temperate grasslands. They eventually link to the vast grasslands of eastern Asia extending to Mongolia, China and Siberian Russia, together creating the largest complex of temperate grasslands on earth. The remaining extent and ecological condition of these grasslands varies considerably by region. Today in eastern Europe, for example, only 3–5 % remain in a natural or near natural state, with only 0.2% protected. In contrast, the eastward extension of these steppes into Kazakhstan reveals lower levels of disturbance, where as much as 36% remain in a semi-natural or natural state. Although current levels of protection in this region are also very low, the steppes of Kazakhstan have the potential to offer significant opportunities for increased conservation and protection. The Kazakh steppe, also known as the Kirghiz steppe, is itself one of the largest dry steppe regions on the planet, covering approximately 804,500 square kilometres and extending more than 2,200 kilometres from north of the Caspian Sea east to the Altai Mountains. These grasslands lie at the southern end of the Ural Mountains, the traditional dividing line between Europe and Asia. -
Description of the Ecoregions of the United States
(iii) ~ Agrl~:::~~;~":,c ullur. Description of the ~:::;. Ecoregions of the ==-'Number 1391 United States •• .~ • /..';;\:?;;.. \ United State. (;lAn) Department of Description of the .~ Agriculture Forest Ecoregions of the Service October United States 1980 Compiled by Robert G. Bailey Formerly Regional geographer, Intermountain Region; currently geographer, Rocky Mountain Forest and Range Experiment Station Prepared in cooperation with U.S. Fish and Wildlife Service and originally published as an unnumbered publication by the Intermountain Region, USDA Forest Service, Ogden, Utah In April 1979, the Agency leaders of the Bureau of Land Manage ment, Forest Service, Fish and Wildlife Service, Geological Survey, and Soil Conservation Service endorsed the concept of a national classification system developed by the Resources Evaluation Tech niques Program at the Rocky Mountain Forest and Range Experiment Station, to be used for renewable resources evaluation. The classifica tion system consists of four components (vegetation, soil, landform, and water), a proposed procedure for integrating the components into ecological response units, and a programmed procedure for integrating the ecological response units into ecosystem associations. The classification system described here is the result of literature synthesis and limited field testing and evaluation. It presents one procedure for defining, describing, and displaying ecosystems with respect to geographical distribution. The system and others are undergoing rigorous evaluation to determine the most appropriate procedure for defining and describing ecosystem associations. Bailey, Robert G. 1980. Description of the ecoregions of the United States. U. S. Department of Agriculture, Miscellaneous Publication No. 1391, 77 pp. This publication briefly describes and illustrates the Nation's ecosystem regions as shown in the 1976 map, "Ecoregions of the United States." A copy of this map, described in the Introduction, can be found between the last page and the back cover of this publication. -
Vegetation at the Taiga Forest–Steppe Borderline in the Western Khentey Mountains, Northern Mongolia
Ann. Bot. Fennici 42: 411–426 ISSN 0003-3847 Helsinki 19 December 2005 © Finnish Zoological and Botanical Publishing Board 2005 Vegetation at the taiga forest–steppe borderline in the western Khentey Mountains, northern Mongolia Choimaa Dulamsuren1, Markus Hauck2 & Michael Mühlenberg1 1) Center of Nature Conservation, University of Göttingen, Von-Siebold-Straße 2, D-37075 Göttingen, Germany (e-mail: [email protected]) 2) Albrecht von Haller Institute of Plant Sciences, University of Göttingen, Untere Karspüle 2, D-37073 Göttingen, Germany (e-mail: [email protected]) Received 31 Aug. 2004, revised version received 11 Nov. 2004, accepted 7 Jan. 2005 Dulamsuren, C., Hauck, M. & Mühlenberg, M. 2005: Vegetation at the taiga forest–steppe border- line in the western Khentey Mountains, northern Mongolia. — Ann. Bot. Fennici 42: 411–426. Vegetation of an area of 500 km2 in the western Khentey Mountains, northern Mon- golia is phytosociologically classified with the help of 254 relevés. Twenty-one main vegetation units are described. The study area is situated at the interface between the western Siberian dark taiga, the eastern Siberian light taiga and the Mongolian-Daurian forest steppe. A small-scale pattern of these three major vegetation types was found depending on site characteristics. Dark taiga forests of Pinus sibirica, Abies sibirica, Picea obovata, and Larix sibirica grow at the most humid sites. Light taiga forests dominated by Larix sibirica and Betula platyphylla occur on relatively dry northern slopes of the lower montane belt. Sun-exposed, southern slopes of the lower montane belt are covered by montane meadow and mountain steppe. DCA ordination suggests that the distribution of vegetation types depends on water supply and altitude. -
Pollen-Based Quantitative Land-Cover Reconstruction for Northern Asia Covering the Last 40 Ka Cal BP
Clim. Past, 15, 1503–1536, 2019 https://doi.org/10.5194/cp-15-1503-2019 © Author(s) 2019. This work is distributed under the Creative Commons Attribution 4.0 License. Pollen-based quantitative land-cover reconstruction for northern Asia covering the last 40 ka cal BP Xianyong Cao1,a, Fang Tian1, Furong Li2, Marie-José Gaillard2, Natalia Rudaya1,3,4, Qinghai Xu5, and Ulrike Herzschuh1,4,6 1Alfred Wegener Institute Helmholtz Centre for Polar and Marine Research, Research Unit Potsdam, Telegrafenberg A43, Potsdam 14473, Germany 2Department of Biology and Environmental Science, Linnaeus University, Kalmar 39182, Sweden 3Institute of Archaeology and Ethnography, Siberian Branch, Russian Academy of Sciences, pr. Akad. Lavrentieva 17, Novosibirsk 630090, Russia 4Institute of Environmental Science and Geography, University of Potsdam, Karl-Liebknecht-Str. 24, 14476 Potsdam, Germany 5College of Resources and Environment Science, Hebei Normal University, Shijiazhuang 050024, China 6Institute of Biochemistry and Biology, University of Potsdam, Karl-Liebknecht-Str. 24, Potsdam 14476, Germany apresent address: Key Laboratory of Alpine Ecology, CAS Center for Excellence in Tibetan Plateau Earth Sciences, Institute of Tibetan Plateau Research, Chinese Academy of Sciences, Beijing 100101, China Correspondence: Xianyong Cao ([email protected]) and Ulrike Herzschuh ([email protected]) Received: 21 August 2018 – Discussion started: 23 October 2018 Revised: 3 July 2019 – Accepted: 8 July 2019 – Published: 8 August 2019 Abstract. We collected the available relative pollen produc- pollen producers. Comparisons with vegetation-independent tivity estimates (PPEs) for 27 major pollen taxa from Eura- climate records show that climate change is the primary fac- sia and applied them to estimate plant abundances during the tor driving land-cover changes at broad spatial and temporal last 40 ka cal BP (calibrated thousand years before present) scales. -
A HOME for the DAURIA's RARE CREATURES Securing Steppe
A HOME FOR THE DAURIA’S RARE CREATURES Securing steppe fauna in the Daursky Biosphere Reserve Photo: Vadim Kiriliuk Adon-Chelon, ‘The Herd of Stone Horses’ – a site targeted for Argali Sheep reintroduction Torey Lakes - Russian The Dauria Steppe Ecoregion The transboundary Dauria steppe ecoregion occurs across Mongolia, Russia and China. Within Russia, the Dauria steppe spreads across the Zabaikalsky Province in Russia’s Far East. It is renowned for its high diversity of fauna including the Great Bustard, Daurian Crane, Swan Goose, Mongolian Gazelle, Argali Sheep, Siberian Marmot, and Pallas Cat. The high zoological diversity of the region has been attributed to a number of factors including a large range of habitat types and dispersion corridors, the overlap of several zoogeographic zones, and extreme variations in climatic conditions which triggers widespread migrations in many species. Despite the high biodiversity values of the region, Zabaikalsky Province has the lowest protected areas coverage amongst Russia’s eastern provinces. One of the few protected areas in the region is the exceptional Daursky Biosphere Reserve, situated near the Mongolian and China border, which unites a cluster of reserves including the Tasucheisky Wildlife Refuge. Representing the majority of major landscape types of the Dauria, the 45,790 hectare core area of the Daursky consists of wetlands and rocky hills, while the 163,530 hectare buffer zone contains mostly grassland and pine stands. The reserve also includes the significant rocks of Adon-Chelon (‘The Herd of Stone Horses’ in Buryat language), and a stand of the rare Krylov pine which is uniquely adapted to survive the conditions of the dry steppes. -
Distribution Mapping of World Grassland Types A
Journal of Biogeography (J. Biogeogr.) (2014) SYNTHESIS Distribution mapping of world grassland types A. P. Dixon1*, D. Faber-Langendoen2, C. Josse2, J. Morrison1 and C. J. Loucks1 1World Wildlife Fund – United States, 1250 ABSTRACT 24th Street NW, Washington, DC 20037, Aim National and international policy frameworks, such as the European USA, 2NatureServe, 4600 N. Fairfax Drive, Union’s Renewable Energy Directive, increasingly seek to conserve and refer- 7th Floor, Arlington, VA 22203, USA ence ‘highly biodiverse grasslands’. However, to date there is no systematic glo- bal characterization and distribution map for grassland types. To address this gap, we first propose a systematic definition of grassland. We then integrate International Vegetation Classification (IVC) grassland types with the map of Terrestrial Ecoregions of the World (TEOW). Location Global. Methods We developed a broad definition of grassland as a distinct biotic and ecological unit, noting its similarity to savanna and distinguishing it from woodland and wetland. A grassland is defined as a non-wetland type with at least 10% vegetation cover, dominated or co-dominated by graminoid and forb growth forms, and where the trees form a single-layer canopy with either less than 10% cover and 5 m height (temperate) or less than 40% cover and 8 m height (tropical). We used the IVC division level to classify grasslands into major regional types. We developed an ecologically meaningful spatial cata- logue of IVC grassland types by listing IVC grassland formations and divisions where grassland currently occupies, or historically occupied, at least 10% of an ecoregion in the TEOW framework. Results We created a global biogeographical characterization of the Earth’s grassland types, describing approximately 75% of IVC grassland divisions with ecoregions. -
Siberia) Over the Last 8000 Years and Their Impact on the Types of Economic Life of the Population
Quaternary Science Reviews 163 (2017) 152e161 Contents lists available at ScienceDirect Quaternary Science Reviews journal homepage: www.elsevier.com/locate/quascirev Environmental dynamics of the Baraba forest-steppe (Siberia) over the last 8000 years and their impact on the types of economic life of the population * Snezhana Zhilich a, c, Natalia Rudaya a, b, d, g, , Sergei Krivonogov b, c, Larisa Nazarova d, e, f, Dmitry Pozdnyakov a, g a Institute of Archaeology and Ethnography SB RAS, Prospekt Ak. Lavrentieva 17, Novosibirsk, 630090, Russia b Novosibirsk State University, Ul. Pirogova 2, Novosibirsk, 630090, Russia c Institute of Geology and Mineralogy SB RAS, Prospekt Ak. Koptyuga 3, Novosibirsk, 630090, Russia d Kazan State University, Ul. Kremlyovskaya 18, Kazan, 420000, Russia e UniversitatPotsdam,€ Karl-Liebknecht-Straße 24e25, Golm, 14476, Potsdam, Germany f Alfred Wegener Institute, Helmholtz Center for Polar and Marine Research, Department of Periglacial Research, 14473, Telegrafenberg A43 Potsdam, Germany g Altai State University, Str. Lenina, 61, Barnaul, 656049, Russia article info abstract Article history: This article offers a reconstruction of the vegetation and climate of the south-western Siberian Baraba Received 16 February 2017 forest-steppe area during the last ca. 8000 years. The analysis of palynological data from the sediment Received in revised form core of Lake Bolshie Toroki using quantitative methods has made it possible to reconstruct changes of the 22 March 2017 dominant types of vegetation and mean July air temperatures. Coniferous forests grew in the vicinity of Accepted 22 March 2017 the lake, and mean July air temperatures were similar to present-day ones between 7.9 and 7.0 kyr BP. -
The Impact of Mammoths on Their Biome: Clash of Two Paradigms
P. V. Putshkov Institute of Zoology,Academia of Sciences, Kiev The impact of mammoths on their biome: clash of two paradigms Putshkov, P.V., 2003 - The impact of mammoths on their biome: clash of two paradigms - in: Reumer, J.W.F., de Vos, J. & Mol, D. (eds.) - ADVANCES IN MAMMOTH RESEARCH (Proceedings of the Second International Mammoth Conference, Rotterdam, May 16-20 1999) - DEINSEA 9: 365- 379 [ISSN 0923-9308] Published 24 May 2003 Mammoths, woolly rhinoceroses, musk oxen, primitive bisons, and horses of northern races were stenobiotic cryoxerophiles living only under extreme cryoarid conditions according to the ‘steppe- tundra crash paradigm’. These animals are considered to be strict grazers on arid steppe-tundra gras- ses; hence, the possibility that mammoths maintain their pastures the way modern elephants do is rejected. Climatists claim that mammoths and their faunal satellites were killed by the Holocene warming a result of their inability to feed themselves in any of modern landscapes and to withstand the weather-caused losses. Their survival throughout interglacials is considered as resulting from climatic instability: short warm episodes are said to have alternated with very cold ones. It is belie- ved that a permanent Arctic Ocean ice-shield persisted along the Siberian coast even in summer; its cooling and aridifying influence maintained steppe-tundras and similar ecosystems throughout Northern Eurasia. On the contrary, the stable Holocene warming resulted in the disappearance of this ice-shield, in the destruction of the ecosystem of the mammoths, and in megafaunal extinctions. This conception is based mainly on the properties of Eemian Greenland ice layers. -
About Relict Larches of Mountain Forest Steppe of South Siberia
BIO Web of Conferences 24, 00060 (2020) https://doi.org/10.1051/bioconf/20202400060 International Conferences “Plant Diversity: Status, Trends, Conservation Concept” 2020 About relict larches of mountain forest steppe of South Siberia Bimba Namzalov1*, and Nikolay Dubrovsky2 1State Scientific Institution “Buryat Research Institute of Agriculture”, 670045, Tretiakova str. 25z, Ulan-Ude, Russia 2Tuva State University, 667000, Lenin str. 36, Kyzyl, Russia Abstract. The paper provides original information about relict phenomena in the structure of the forest component of the mountain forest-steppe of Southern Siberia (SS). Larch (Larix sibirica Ledeb.) shrub-grass forests are a characteristic element of vegetation in the forest-steppe of the SS. The oldest are the Pliocene, the most thermophilic analogues of the modern forest-steppe, noted in the foothills of the Western Tannu-Ola ridge (natural boundary Khorlety) – is a small-leaved honeysuckle-wormwood larch forest with participation in the community of highland-Asian elements of ancient Middle-earth – Lonicera microphylla, Cotoneaster megalocarpus, Spiraea hypericifolia. In the conditions of Western Transbaikalia, in the spurs of the Malyi Khamar-Daban ridge (natural boundary Inzagatuy) described the relict sedge-needlegrass larch forest with the participation of characteristic species of the periglacial Pleistocene complex such as Helictotrichon altaicum, Festuca sibirica, Artemisia commutata and others. In the Quaternary period – especially in the xerothermic phases of the Holocene, as mountain glaciers were deglaciated and a relatively warm and temperate climate develops, conditions are created for the formation of a modern mountain forest-steppe in the conditions of the semi-humid climatic regime of the SS. In accordance with the modern concept of biodiversity, the concept of “relict” must be considered broadly, highlighting relict phytosystems not only of the species, but also of the coenotic and landscape level [1]. -
Russian Forests and Climate Change
Russian forests and What Science Can Tell Us climate change Pekka Leskinen, Marcus Lindner, Pieter Johannes Verkerk, Gert-Jan Nabuurs, Jo Van Brusselen, Elena Kulikova, Mariana Hassegawa and Bas Lerink (editors) What Science Can Tell Us 11 2020 What Science Can Tell Us Sven Wunder, Editor-In-Chief Georg Winkel, Associate Editor Pekka Leskinen, Associate Editor Minna Korhonen, Managing Editor The editorial office can be contacted at [email protected] Layout: Grano Oy Recommended citation: Leskinen, P., Lindner, M., Verkerk, P.J., Nabuurs, G.J., Van Brusselen, J., Kulikova, E., Hassegawa, M. and Lerink, B. (eds.). 2020. Russian forests and climate change. What Science Can Tell Us 11. European Forest Institute. ISBN 978-952-5980-99-8 (printed) ISBN 978-952-7426-00-5 (pdf) ISSN 2342-9518 (printed) ISSN 2342-9526 (pdf) https://doi.org/10.36333/wsctu11 Supported by: This publication was produced with the financial support of the European Union’s Partnership Instrument and the German Federal Ministry for the Environment, Na- ture Conservation, and Nuclear Safety (BMU) in the context of the International Cli- mate Initiative (IKI). The contents of this publication are the sole responsibility of the European Forest Institute and do not necessarily reflect the views of the funders. Russian forests and What Science Can Tell Us climate change Pekka Leskinen, Marcus Lindner, Pieter Johannes Verkerk, Gert-Jan Nabuurs, Jo Van Brusselen, Elena Kulikova, Mariana Hassegawa and Bas Lerink (editors) Contents Authors .............................................................................................................................. -
Origin and Causes of the Mammoth Steppe: a Story of Cloud Cover, Woolly Mammal Tooth Pits, Buckles, and Inside-Out Beringia R
Quaternary Science Reviews 20 (2001) 549}574 Origin and causes of the mammoth steppe: a story of cloud cover, woolly mammal tooth pits, buckles, and inside-out Beringia R. Dale Guthrie* Institute of Arctic Biology, University of Alaska, Fairbanks, AK 99709, USA Abstract To account for the vastness of the northern arid steppes during Glacial episodes, I propose the proximate key variable was simply frequent clear skies. This hitherto under-emphasized point is the hub which best explains many questions. Low maritime cloud cover best accounts for today's tundra, and in a related way, the cloudy Polar Front accounts for the whole of the taiga. Even during Glacial maxima, the proximity of the sea to the Bering isthmus created intermittent maritime cloud cover. This regional cloud cover produced an ecological interruption, or buckle, of the arid steppe belt. While this Beringian mesic buckle did not serve as an intercontinental ecological barrier to most steppe-adapted species, it does seem to have limited the distributions of woolly rhinos, camels, American kiangs, short-faced bears, badgers, and some others. At the beginning of the Holocene, this narrow refugium seems to have been a source of some mesic-adapted species which colonized westward into the now tundra vegetation of northern Asia and eastward into northern North America. This Holocene expansion from a limited and regional Pleistocene refugium created our present misconcep- tions about Beringia. The mid-strait mesic ecological conditions were the exception to the more extensive, arid-adapted, communities of the Mammoth Steppe. ( 2000 Published by Elsevier Science Ltd. All rights reserved.