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Slopes (Soil mechanics) --- Pentes (mécanique des sols) --- Landslides --- Éboulements. --- Pentes (mécanique des sols) --- Éboulements.
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Slopes (Soil mechanics) --- Pentes (mécanique des sols) --- Landslides. --- Glissements de roches. --- Pentes (mécanique des sols)
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Slopes (Soil mechanics) --- Pentes (mécanique des sols) --- Earth pressure. --- Poussée des terres. --- Remblais. --- Embankments. --- Stability. --- Stabilité. --- Pentes (mécanique des sols) --- Poussée des terres. --- Stabilité.
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Foundations. --- Fondations (construction) --- Piling (Civil engineering) --- Pieux --- Drainage. --- Drainage --- Slopes (Soil mechanics) --- Pentes (mécanique des sols) --- Caissons. --- Soil stabilization. --- Sols --- Stabilisation --- Pentes (mécanique des sols)
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Rock slopes --- Geological surveys. --- Rocks. --- Geological surveys --- Services géologiques. --- Rock mechanics --- Roches, Mécanique des. --- Slopes (Soil mechanics) --- Pentes (mécanique des sols) --- Groundwater flow in rocks --- Services géologiques. --- Roches, Mécanique des. --- Pentes (mécanique des sols)
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"Gravity hazards are a major concern to those living in mountainous areas. To protect infrastructure and human life in these areas, engineers require numerical tools for trajectory analysis, for application from fragmental rockfalls to large-scale avalanches or landslides.This book explores state-of-the-art methods to model the propagation (flows and stops) of masses, using the discrete element method (DEM) to study the evolution of kinetics during an event. Taking into account the shape of the blocks and the topology of the terrain provides an explicit and sophisticated consideration of geometries, eliminating the need for stochastic inputs to rockfall simulations. This method is validated experimentally, before the authors apply it to real case studies. The book ends with an introduction to and comparison with the material point method (MPM), a new and promising approach able to bridge the gap between cases dominated by discreteness and those involving a very large number of elements.Engineering consulting firms, researchers and students should find the approaches outlined in this book useful, whether designing prevention and protection systems for gravity hazards, or exploring new ways to model gravity hazards." [Publisher]
Landslide hazard analysis. --- Landslides --- Slopes (Soil mechanics) --- Geological modeling. --- Glissements de terrain --- Pentes (mécanique des sols) --- Modèles en géologie. --- Mathematical models. --- Modèles mathématiques --- Modèles en géologie --- Pentes (mécanique des sols) --- Modèles en géologie --- Modèles mathématiques
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Soil mechanics. --- Mécanique des sols --- Engineering geology. --- Géologie appliquée --- Stability. --- Stabilité. --- Slopes (Soil mechanics) --- Pentes (mécanique des sols) --- Mécanique des sols --- Géologie appliquée --- Stabilité. --- Pentes (mécanique des sols)
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Soil stabilization. --- Soil-binding plants. --- Slopes (Soil mechanics) --- Soil erosion. --- Accelerated erosion --- Soils --- Erosion --- Soil mechanics --- Erosion controlling plants --- Soil binders (Plants) --- Plants, Useful --- Stabilization of soils --- Stability --- Reinforced soils --- Soil compaction --- Soil consolidation --- Subsurface drainage --- Environmental Sciences and Forestry. Soil Science --- Land degradation and Land conservation --- Slopes (Soil mechanics). --- Land degradation and Land conservation. --- Soil-binding plants --- Soil erosion --- Soil stabilization --- Pentes (mécanique des sols) --- Shear strength of soils --- Sols --- Résistance au cisaillement --- Consolidation --- Pentes (mécanique des sols) --- Résistance au cisaillement
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