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  • 1
    Keywords: Rockslides-Asia, Central. ; Electronic books.
    Type of Medium: Online Resource
    Pages: 1 online resource (459 pages)
    Edition: 1st ed.
    ISBN: 9780128032053
    DDC: 551.3/07
    Language: English
    Note: Front Cover -- Rockslides and Rock Avalanches of Central Asia -- Copyright Page -- Dedication -- Contents -- 1 Introduction -- I. General Information -- 2 Brief History of the Bedrock Landslide Studies in the Central Asia -- 3 Overview of the Study Region -- 3.1 The Study Region: Its Topography and Boundaries -- 3.2 Geology and Tectonics -- 3.3 Neotectonics and Geomorphology -- 3.4 Seismicity -- 3.4.1 Instrumental and Historical Records -- 3.4.2 Paleoseismological Data -- 3.5 Climate, Glaciation, and Hydrology -- 4 Principles and Criteria of Landslides Identification and Discrimination From the Features Formed by Other Mass-Wasting Ph... -- 4.1 General Criteria of Rockslide/Rock Avalanche Identification -- 4.2 Rock Avalanches Versus Moraines -- 4.3 Rock Avalanches Versus Rock Glaciers -- 4.4 The Abnormally Large Fan-Shape Deposits and Their Origin -- 4.5 Bedrock Landslides in the Contemporary Glaciated Regions -- 5 Bedrock Landslide Types and Classification Systems -- 5.1 Bedrock Slope Failure Types -- 5.2 Rockslide Dams Classification -- 5.3 Rock Avalanches Classification -- 5.3.1 Primary Rock Avalanches -- 5.3.2 Jumping Rock Avalanches -- 5.3.3 Secondary Rock Avalanches -- 5.3.3.1 Secondary Rock Avalanches of the Classical Subtype -- 5.3.3.2 Secondary Rock Avalanches of the Bottleneck Subtype -- 5.3.3.3 Combined Cases -- 5.3.4 Some Implications of the Proposed Rock Avalanche Classification -- 6 The Bedrock Landslides Database -- 6.1 General Information -- 6.2 Headscarp Geology and Parameters -- 6.3 Overall Parameters of Rockslide Deposits -- 6.4 Rock Avalanche Parameters -- 6.5 Rockslide Dams and Dammed Lakes Parameters -- II. Regional Description -- 7 Dzungaria -- 8 Tien Shan -- 8.1 Eastern Tien Shan -- 8.2 Highest Tien Shan -- 8.3 Northern Tien Shan -- 8.4 Central Tien-Shan -- 8.5 North-Western Tien Shan -- 8.6 Southern Tien Shan -- 9 Pamir. , 9.1 Eastern and Northern Pamir -- 9.2 Western and South-Western Pamir -- 9.3 Pianj River Valley and the Afghan Badakhshan -- III. Analysis -- 10 Quantitative Relationships of Central Asian Bedrock Landslide Parameters -- 10.1 Size-Frequency Distribution of Bedrock Landslides -- 10.2 Area-Volume Relationships -- 10.3 Parameters Characterizing Rockslide and Rock Avalanche Mobility -- 10.3.1 Overall Mobility -- 10.3.2 Secondary Rock Avalanches' Mobility -- 10.3.3 Area Affected: Additional Parameter Characterizing Rockslide Mobility -- 11 Structure and Grain-Size Composition of Large-Scale Bedrock Landslide Deposits -- 11.1 Retention of the Rock Mass Macrostructure -- 11.2 Grain-Size Composition and Minor Landforms of Rockslide Deposits -- 11.2.1 Blocky Carapace and its Typical Features -- 11.2.1.1 Grain-Size Composition -- 11.2.1.2 Carapace Landforms -- 11.2.2 Comminuted Interior (Fragmented Facies) -- 11.2.3 Basal Facies and Rockslide Bodies Interaction with the Substrate -- 11.3 Experimental Simulation of Rockslides' Internal Structure -- 12 Morphological and Structural Evidence of Rockslides' (Rock Avalanches') Motion Mechanism(s) -- 12.1 Eyewitness Observations -- 12.2 Geomorphic Indicators of the Emplacement Mechanism(s) -- 12.2.1 Indicators of the Extremely High Velocity of Debris Motion -- 12.2.2 Indicators of Rockslide Debris Mechanical Properties Alteration During its Motion -- 12.2.3 Indicators of the Momentum Transfer During Rockslide Emplacement -- 12.2.4 Shape of the Unconfined Rock Avalanche Bodies as Indicator of the Rock Avalanche Base Shear Strength -- 12.2.5 Debris Apron Outside Headscarp Sidewalls-Indicator of Buckling -- 12.2.6 Molards as Indicators of Rockslide Motion Mechanism(s) -- 12.3 Sedimentological and Structural Indicators of Rockslide Motion Mechanism(s). , 12.3.1 Host Rock Mass Structure Preservation-Indication of the Laminar Granular Flow -- 12.3.2 Grain-Size Composition and Fragmentation Energy -- 12.3.3 Some Examples of Rockslide Deposits With Abnormal Internal Structure -- 13 Seismically Induced Rockslides: Their Discrimination -- 13.1 The Historical Earthquake-Induced Rockslides of the Central Asian Region -- 13.2 Justification of Seismic Triggering of the Prehistoric Rockslides -- 13.2.1 Spatial and Temporal Coincidence of Rockslides With Active Faults -- 13.2.2 Position of the Rockslide Source Zone -- 13.2.3 Rockslides and Seismically Induced Liquefaction -- 13.2.4 Geological Evidence of Rockslides Simultaneous Formation -- 13.2.5 Specific Features of the Source Zones of Some Seismically Triggered Rockslides -- 13.2.6 Substantiation of Seismic Triggering of the Kokomeren Rockslide -- 14 Rockslide Dams-Origin, Evolution, and Failure -- 14.1 Formation of Rockslide-Dammed Lakes -- 14.2 Evolution of Rockslide-Dammed Lakes -- 14.2.1 Influence of Dam's Internal Structure and Grain-Size Composition on Their Evolution -- 14.2.2 Morphometric Parameters Determining Rockslide Dams' Evolution -- 14.2.3 Cascades of Dammed Lakes -- 14.3 Breached Lakes and Evidence of the Past Catastrophic Outburst Floods -- 14.4 Role of Rockslide Damming in River Valleys' Evolution -- 15 Evidence of Slope Instabilities-Potential of Future Large-Scale Slope Failures -- Conclusive Remarks -- References -- Index -- Back Cover.
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  • 2
    Publication Date: 2017-01-22
    Description: A total of 84 seismic profiles, mainly from the western and eastern deltas of Lake Issyk-Kul, were used to identify lake-level changes. Seven stratigraphic sequences were reconstructed, each containing a series of delta lobes that were formed during former lake-level stillstands or dur- ing slow lake-level increase or decrease. The lake level has experienced at least four cycles of stepwise rise and fall of 400 m or more. These fluctuations were mainly caused by past changes in the atmospheric circulation pattern. During periods of low lake levels, the Siberian High was likely to be strong, bringing dry air masses from the Mongolian steppe blocking the midlatitude Westerlies. During periods of high lake levels, the Siberian High must have been weaker or dis- placed, and the midlatitude Westerlies could bring moister air masses from the Mediterranean and North Atlantic regions.
    Repository Name: EPIC Alfred Wegener Institut
    Type: Article , isiRev
    Format: application/pdf
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