Keywords:
Slopes (Soil mechanics) -- Mathematical models.
;
Electronic books.
Description / Table of Contents:
Written by seventy-five world-leading researchers and practitioners, this state-of-the-art summary of landslide science features both field geology and engineering approaches, illustrated with international case studies. It provides an essential reference for researchers and graduate students in geomorphology, engineering geology, geotechnical engineering and geophysics, and professionals in natural hazard analysis.
Type of Medium:
Online Resource
Pages:
1 online resource (436 pages)
Edition:
1st ed.
ISBN:
9781139554190
URL:
https://ebookcentral.proquest.com/lib/geomar/detail.action?docID=989101
DDC:
551.3/07
Language:
English
Note:
Cover -- Landslides -- Title -- Copyright -- Contents -- Contributors -- Preface -- 1: Landslide hazard and risk -- ABSTRACT -- 1.1 INTRODUCTION -- 1.2 HAZARD AND RISK -- 1.3 EVALUATING HAZARD -- 1.4 FROM HAZARD TO RISK -- 1.5 AN EXAMPLE OF LANDSLIDE RISK EVALUATION -- 1.6 LANDSLIDE RISK IN THE FUTURE -- 1.7 CONCLUSIONS -- REFERENCES -- 2:Landslides in the Earth system -- ABSTRACT -- 2.1 INTRODUCTION -- 2.2 LANDSLIDE DISTRIBUTION AND SIZE -- 2.3 LANDSLIDES AND THE LITHOSPHERE -- 2.4 LANDSLIDES AND THE HYDROSPHERE -- 2.4.1 LANDSLIDES AND THE TERRESTRIAL WATER CYCLE -- 2.4.2 LANDSLIDES AND THE OCEANS -- 2.5 LANDSLIDES AND THE BIOSPHERE -- 2.6 SUMMARY -- ACKNOWLEDGEMENTS -- REFERENCES -- 3: Earthquake ground motion and patterns of seismically induced landsliding -- ABSTRACT -- 3.1 INTRODUCTION -- 3.2 EARTHQUAKES, SEISMIC WAVES, AND GROUND MOTION -- 3.3 LANDSLIDING AND EARTHQUAKE STRONG GROUND MOTION -- 3.4 SPATIAL PATTERNS OF EARTHQUAKE-TRIGGERED LANDSLIDES -- 3.4.1 REGIONAL PATTERNS -- 3.4.2 TOPOGRAPHIC SITE EFFECTS -- 3.5 TEMPORAL PATTERNS OF SEISMICALLY INDUCED LANDSLIDING -- 3.6 EARTHQUAKE EROSION AND MASS BALANCE -- 3.7 CONCLUSIONS AND OUTLOOK -- REFERENCES -- 4: Landslides at stratovolcanoes initiated by volcanic unrest -- ABSTRACT -- 4.1 INTRODUCTION -- 4.2 VOLCANIC LANDSLIDES ASSOCIATED WITH ERUPTIVE ACTIVITY AND UNREST -- 4.2.1 VOLCANIC LANDSLIDES ASSOCIATED WITH PHREATIC ERUPTIONS -- 4.2.2 HOW DO PHREATIC ERUPTIONS INITIATE VOLCANIC LANDSLIDES? -- 4.2.3 VOLCANIC LANDSLIDES ASSOCIATED WITH MAGMATIC INTRUSIONS -- 4.2.4 VOLCANIC LANDSLIDES ASSOCIATED WITH MAGMA EXTRUSION -- 4.2.5 VOLCANIC LANDSLIDES ASSOCIATED WITH EXPLOSIVE CONDUIT PROCESSES -- 4.3 DISCUSSION -- ACKNOWLEDGEMENTS -- REFERENCES -- 5: Mobility of long-runout rock avalanches -- ABSTRACT -- 5.1 INTRODUCTION -- 5.2 MECHANISMS OF LONG RUNOUT.
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5.3 ENVIRONMENTS, MATERIALS AND CHARACTERISTICS OF LONG-RUNOUT ROCK AVALANCHES -- 5.4 IMPLICATIONS -- 5.5 OTHER MECHANISMS -- 5.6 DYNAMIC ROCK FRAGMENTATION -- 5.6.1 OUTLINE -- 5.6.2 THE ENERGETICS OF BREAKING GRAINS -- 5.6.3 SOCOMPA DEBRIS AVALANCHE -- 5.7 DISCUSSION -- 5.8 LOOKING FORWARD -- ACKNOWLEDGEMENTS -- REFERENCES -- 6: Rapid rock-slope failures -- ABSTRACT -- 6.1 INTRODUCTION -- 6.2 OVERVIEW OF ROCK-SLOPE FAILURES AND HAZARD -- 6.3 RECOGNITION OF TYPES OF ROCK-SLOPE FAILURES AND THEIR DEPOSITS -- 6.4 TEMPORAL ROCKSLIDE DISTRIBUTION AND CLIMATE CHANGE -- 6.5 CATASTROPHIC LANDSLIDES AND NEOTECTONICS -- REFERENCES -- 7: Risk assessments for debris flows -- ABSTRACT -- 7.1 INTRODUCTION -- 7.2 DEBRIS-FLOW RISK ASSESSMENT FRAMEWORK -- 7.2.1 CONSULTATION ZONE -- 7.2.2 FREQUENCY-MAGNITUDE ANALYSIS -- 7.2.3 DEBRIS-FLOW HAZARD AND INTENSITY MAPS -- 7.3 DEBRIS-FLOW RISK -- 7.3.1 HAZARD PROBABILITY AND PARTIAL RISK APPROACH -- 7.3.2 QUANTITATIVE ASSESSMENTS FOR DEBRIS-FLOW RISK TO LIFE -- 7.4 CASE STUDIES -- 7.4.1 CASE STUDY 1: DEBRIS-FLOW RISK TO HIGHWAY USERS -- RISK ESTIMATION -- INDIVIDUAL RISK SUMMARIES -- GROUP RISK SUMMARIES -- RESULTS -- 7.4.2 CASE STUDY 2: RISK TO URBAN DEVELOPMENT -- RISK ESTIMATION -- RISK TO INDIVIDUALS -- RISK TO DEVELOPMENT -- 7.5 ERROR SOURCES -- 7.6 CONCLUSIONS -- ACKNOWLEDGEMENT -- REFERENCES -- 8: Landslides in quick clay -- ABSTRACT -- 8.1 INTRODUCTION -- 8.2 WHAT IS QUICK CLAY? -- 8.3 GEOLOGIC SETTINGS -- 8.4 GENERAL MODEL FOR QUICK CLAY DEVELOPMENT -- 8.4.1 MINERALOGY -- 8.4.2 FLOCCULATION -- 8.4.3 CEMENTATION -- 8.4.4 LIQUID LIMIT -- 8.4.5 OTHER FACTORS -- 8.5 DRAINAGE SYSTEM DEVELOPMENT, SUBAERIAL WEATHERING, NODULAR STRUCTURE, AND CUTAN DEVELOPMENT -- 8.6 RANGE OF QUICK CLAY PHYSICAL PARAMETERS -- 8.7 LANDSLIDE TYPES -- 8.8 LANDSLIDE INITIATION -- 8.9 LANDSLIDE DEVELOPMENT -- 8.9.1 STEPWISE LANDSLIDES.
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MULTIDIRECTIONAL RETROGRESSION -- 8.9.2 UNINTERRUPTED LANDSLIDES -- FLAKESLIDES -- THE RISSA LANDSLIDE -- ABORTED, TWO-DIMENSIONAL, AND EXCESS RETROGRESSION -- 8.9.3 DEVELOPMENT OF RIBBED LANDSLIDES -- 8.10 HAZARD ASSESSMENT AND PROSPECTIVE METHODS FOR PREVENTION OF QUICK CLAY LANDSLIDES -- REFERENCES -- 9: Controls on the distribution of major types of submarine landslides -- ABSTRACT -- 9.1 INTRODUCTION -- 9.2 SEDIMENT TRANSPORT PROCESSES IN SUBMARINE LANDSLIDES -- 9.3 ARCHITECTURAL TYPES OF SUBMARINE SLIDES -- 9.3.1 INTRODUCTION -- 9.3.2 FRONTALLY EMERGENT AND FRONTALLY CONFINED SLIDES -- 9.3.3 SIMPLE SLUMPS -- 9.3.4 MAJOR RETROGRESSIVE SLUMPS -- 9.3.5 LARGE COMPLEX LANDSLIDES -- 9.3.6 BLOCKY DISAGGREGATED LANDSLIDES -- 9.4 THE CAUSES OF FAILURES -- 9.5 THE GLACIATED EASTERN CANADIAN CONTINENTAL MARGIN -- 9.5.1 DATA AVAILABILITY -- 9.5.2 PROGRADATIONAL AND EROSIONAL CONTINENTAL MARGINS -- 9.5.3 PROGRADATIONAL SMOOTH SLOPES AND SEDIMENT DRIFTS -- 9.5.4 EROSIONAL MARGIN SEGMENTS -- 9.6 DISCUSSION -- 9.7 CONCLUSIONS -- REFERENCES -- 10: Tsunami hazard assessment related to slope failures in coastal waters -- ABSTRACT -- 10.1 INTRODUCTION -- 10.2 COMMON CONDITIONING FACTORS AND TRIGGERS -- 10.3 PROGRESSIVE TSUNAMI HAZARD ASSESSMENT APPROACH -- 10.3.1 PAST ACCOUNTS OF EVENTS -- 10.3.2 GEOLOGIC INVESTIGATIONS -- 10.3.3 GEOTECHNICAL STUDIES -- 10.3.4 FREQUENCY OF TSUNAMIGENIC LANDSLIDES -- 10.3.5 LANDSLIDE-GENERATED TSUNAMI MODELING -- 10.3.6 THINGS WE USUALLY DON'T KNOW -- 10.3.7 SUMMARY OF LANDSLIDE TSUNAMI HAZARD ASSESSMENT APPROACH -- 10.4 CONCLUSIONS -- ACKNOWLEDGEMENTS -- REFERENCES -- 11: Physical impacts of climate change on landslide occurrence and related adaptation -- ABSTRACT -- 11.1 INTRODUCTION -- 11.2 OBSERVED IMPACTS OF CLIMATE CHANGE ON LANDSLIDE ACTIVITY -- 11.2.1 EFFECTS ON SHALLOW LANDSLIDES AND DEBRIS FLOWS.
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11.2.2 EFFECTS ON ROCK-SLOPE FAILURES AND DEBRIS FLOWS IN HIGH MOUNTAINS -- 11.3 PROJECTED IMPACTS OF CLIMATE CHANGE ON LANDSLIDE ACTIVITY -- 11.4 ADAPTATION TO EFFECTS OF CLIMATE CHANGE ON SLOPE STABILITY -- 11.4.1 MODELING PRECIPITATION CHANGE AND ITS EFFECTS ON LANDSLIDE OCCURRENCE -- 11.4.2 ADAPTATION OF A LANDSLIDE EARLY-WARNING SYSTEM TO CHANGING PRECIPITATION -- 11.5 CONCLUSIONS -- ACKNOWLEDGEMENTS -- REFERENCES -- 12: Landslides and geologic environments -- ABSTRACT -- 12.1 INTRODUCTION -- 12.2 THE INFLUENCE OF ROCK TYPE, STRATIGRAPHY, WEATHERING, AND STRUCTURE ON LANDSLIDING -- 12.2.1 GRANITIC ROCKS -- 12.2.2 BASALT -- 12.2.3 SEDIMENTARY ROCKS -- 12.2.4 THE EFFECTS OF FOLDING OF SEDIMENTARY STRATA -- 12.2.5 THE EFFECTS OF STRESS RELIEF FROM FORMATION OF VALLEYS -- 12.2.6 FOLIATED METAMORPHIC ROCKS -- 12.3 SOME FACTORS TO CONSIDER IN THE ANALYSES OF STABILITY OF SLOPES -- 12.3.1 THE MECHANICS OF SLIDING -- 12.3.2 ASSESSMENT OF SHEAR STRENGTH PARAMETERS IN ROCK -- 12.3.3 ASSESSMENT OF PORE PRESSURES IN SLOPES -- REFERENCES -- 13: Numerical modeling of rock-slope instability -- ABSTRACT -- 13.1 INTRODUCTION -- 13.2 KINEMATIC ANALYSIS -- 13.3 ADVANCES IN LIMIT EQUILIBRIUM SLOPE ANALYSIS -- 13.3.1 TWO-DIMENSIONAL LIMIT EQUILIBRIUM APPLICATIONS -- 13.3.2 THREE-DIMENSIONAL LIMIT EQUILIBRIUM APPLICATIONS -- 13.4 CONTINUUM MODELING OF LANDSLIDES -- 13.5 DISCONTINUUM MODELING OF ROCK SLOPES -- 13.6 BRITTLE FRACTURE MODELING -- 13.6.1 FEM/DEM -- 13.6.2 PARTICLE FLOW CODES -- 13.6.3 UDEC DAMAGE MODELS -- 13.6.4 THE SYNTHETIC ROCK MASS (SRM) APPROACH -- 13.7 FUTURE CHALLENGES IN THE NUMERICAL ANALYSIS OF ROCK SLOPES -- 13.7.1 CONSIDERATION OF SPATIAL VARIABILITY IN NUMERICAL MODELING -- 13.7.2 TREATMENT OF UNCERTAINTY IN NUMERICAL MODELING -- 13.7.3 IMPROVED MODELING CONSTRAINTS -- 13.8 CONCLUSIONS -- REFERENCES.
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14: Remote sensing techniques and landslides -- ABSTRACT -- 14.1 INTRODUCTION -- 14.2 KEY RECENT TECHNOLOGICAL ADVANCES -- 14.3 PHOTOGRAMMETRY -- 14.4 OPTICAL SATELLITE IMAGERY, INCLUDING THE APPLICATION OF THE GOOGLE EARTH TOOL -- 14.5 RADAR SATELLITE INSTRUMENTATION -- 14.6 AIRBORNE LIDAR -- 14.7 TERRESTRIAL LASER SCANNING (GROUND-BASED LIDAR) -- 14.8 GEOPHYSICAL TECHNIQUES -- 14.8.1 SUBSURFACE ENGINEERING GEOPHYSICAL INVESTIGATION -- 14.8.2 IMAGING OF LANDSLIDES IN THREE DIMENSIONS -- 14.8.3 PERMANENT ARRAYS -- 14.8.4 DATA FUSION -- 14.9 CONCLUSIONS -- REFERENCES -- 15: Engineering geomorphology of landslides -- ABSTRACT -- 15.1 INTRODUCTION -- 15.2 LANDSLIDES: SITUATION AND SITE -- 15.2.1 GEOMORPHOLOGICAL PROCESS-RESPONSE SYSTEMS -- 15.2.2 THE LANDSLIDE GEOMORPHOLOGICAL PROCESS-RESPONSE SYSTEM -- 15.3 ENGINEERING GEOMORPHOLOGICAL INVESTIGATION OF LANDSLIDES -- 15.3.1 THE NATURE AND SCOPE OF THE INVESTIGATION -- 15.3.2 DESK STUDIES AND DIGITAL DATA ANALYSIS -- 15.3.3 FIELD-BASED GEOMORPHOLOGICAL MAPPING -- 15.4 GEOMORPHOLOGICAL CLASSIFICATION OF LANDSLIDES -- 15.5 CONCLUSIONS -- REFERENCES -- 16: Developments in landslide runout prediction -- ABSTRACT -- 16.1 INTRODUCTION -- 16.2 LANDSLIDE RUNOUT MAPPING -- 16.3 EMPIRICAL METHODS -- 16.3.1 VOLUME-FAHRBÖSCHUNG RELATIONSHIPS -- 16.3.2 VOLUME-AREA RELATIONSHIPS -- 16.3.3 OTHER EMPIRICAL METHODS -- 16.4 NUMERICAL MODELS -- 16.4.1 MODEL DEVELOPMENT -- 16.4.2 THE HONG KONG MODEL BENCHMARKING EXERCISES -- 16.4.3 THE CALIBRATION-BASED APPROACH -- 16.4.4 RECENT ADVANCES -- 16.5 CONCLUSIONS -- REFERENCES -- 17: Models of the triggering of landslides during earthquakes -- ABSTRACT -- 17.1 INTRODUCTION -- 17.2 CHARACTERISTICS OF EARTHQUAKE-TRIGGERED LANDSLIDES -- 17.2.1 LANDSLIDE TYPES -- 17.2.2 LANDSLIDE-TRIGGERING CONDITIONS -- 17.2.3 GEOGRAPHIC DISTRIBUTIONS OF EARTHQUAKE-TRIGGERED LANDSLIDES.
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17.3 METHODS FOR ASSESSING THE STABILITY OF SLOPES.
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