Analysis of Geotechnical Problems with Abaqus. Abaqus 2018

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Analysis of Geotechnical Problems with Abaqus Abaqus 2018

About this Course Course objectives Upon completion of this course you will be able to: An overview of modeling geotechnical problems Experimental testing and how it relates to the calibration of constitutive models for geotechnical materials How to use and calibrate the different geotechnical material constitutive models available in Abaqus The limitations of these models The coupling between fluid flow and stress/deformation in the analysis of porous media Modeling issues related to geotechnical problems Targeted audience This seminar is recommended for engineers with experience using Abaqus/Standard. Prerequisites None 2 days

Day 1 Lecture 1 Introduction Lecture 2 Physical Testing Lecture 3 Constitutive Models: Part 1 Lecture 4 Constitutive Models: Part 2 Workshop 1 Material Models for Geotechnical Applications

Day 2 Lecture 5 Analysis of Porous Media Workshop 2 Pore Fluid Flow Analysis: Consolidation Lecture 6 Modeling Aspects Workshop 3 Pore Fluid Flow Analysis: Wicking Workshop 4 Mixing of Granular Media in a Drum Mixer (Optional)

Additional Material Appendix 1 Stress Equilibrium and Fluid Continuity Equations Appendix 2 Bibliography of Geotechnical Example Problems Appendix 3 Infinite Domains Appendix 4 Hydraulic Fracture

SIMULIA SIMULIA is the Dassault Systèmes brand for Realistic Simulation solutions Portfolio of established, best-in-class products Abaqus, Isight, Tosca, fe-safe, Simpack * Included in extended licensing pool

SIMULIA s Power of the Portfolio Abaqus Routine and Advanced Simulation Linear and Nonlinear, Static and Dynamic Thermal, Electrical, Acoustics Extended Physics through Co-simulation Model Preparation and Visualization Realistic Human Simulation High Speed Crash & Impact Noise & Vibration Isight Process Integration Design Optimization Parametric Optimization Six Sigma and Design of Experiments Material Calibration Workflow Automation Design Exploration Tosca Non-Parametric Optimization Structural and Fluid Flow Optimization Topology, Sizing, Shape, Bead Optimization Conceptual/Detailed Design Weight, Stiffness, Stress Pressure Loss Reduction fe-safe Durability Simulation Low Cycle and High Cycle Fatigue Weld, High Temperature, Non-metallics Safety Factors Creep-Fatigue Interaction Weld Fatigue Simpack 3D Multibody Dynamics Simulation Mechanical or Mechatronic Systems Detailed Transient Simulation (Offline and Realtime) Complete System Analyses (Quasi-)Static, Dynamics, NVH Flex Bodies, Advanced Contact

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Legal Notices The software described in this documentation is available only under license from Dassault Systèmes or its subsidiaries and may be used or reproduced only in accordance with the terms of such license. This documentation and the software described in this documentation are subject to change without prior notice. Dassault Systèmes and its subsidiaries shall not be responsible for the consequences of any errors or omissions that may appear in this documentation. No part of this documentation may be reproduced or distributed in any form without prior written permission of Dassault Systèmes or its subsidiaries. Dassault Systèmes, 2017 Printed in the United States of America. Abaqus, the 3DS logo, and SIMULIA are trademarks or registered trademarks of Dassault Systèmes or its subsidiaries in the US and/or other countries. Other company, product, and service names may be trademarks or service marks of their respective owners. For additional information concerning trademarks, copyrights, and licenses, see the Legal Notices in the SIMULIA User Assistance.

Revision Status Lecture 1 11/17 Updated for Abaqus 2018 Lecture 2 11/17 Updated for Abaqus 2018 Lecture 3 11/17 Updated for Abaqus 2018 Lecture 4 11/17 Updated for Abaqus 2018 Lecture 5 11/17 Updated for Abaqus 2018 Lecture 6 11/17 Updated for Abaqus 2018 Appendix 1 11/17 Updated for Abaqus 2018 Appendix 2 11/17 Updated for Abaqus 2018 Appendix 3 11/17 Updated for Abaqus 2018 Appendix 4 11/17 Updated for Abaqus 2018 Workshop 1 11/17 Updated for Abaqus 2018 Workshop 2 11/17 Updated for Abaqus 2018 Workshop 3 11/17 Updated for Abaqus 2018 Workshop 4 11/17 Updated for Abaqus 2018

www.3ds.com Dassault Systèmes Lesson 1: Introduction L1.1 Lesson content: Introduction Overview of Geotechnical Applications Classical and Modern Design Approaches Some Cases for Numerical (FE) Analysis Experimental Testing and Numerical Analysis Requirements for Realistic Constitutive Theories 45 minutes

www.3ds.com Dassault Systèmes Lesson 2: Physical Testing L2.1 Lesson content: Physical Testing Basic Experimental Observations Testing Requirements and Calibration of Constitutive Models 30 minutes

www.3ds.com Dassault Systèmes Lesson 3: Constitutive Models: Part 1 L3.1 Lesson content: Stress Invariants and Spaces Overview of Constitutive Models Elasticity Plastic Behavior of Soils Mohr-Coulomb Model Extended Drucker-Prager Models 2 hours

www.3ds.com Dassault Systèmes Lesson 4: Constitutive Models: Part 2 L4.1 Lesson content: Modified Drucker-Prager/Cap Model Critical State (Clay) Plasticity Model Soft Rock Plasticity Model Jointed Material Model Soil Plasticity Models - Summary Comments on the Numerical Implementation Workshop Preliminaries Workshop 1: Material Models for Geotechnical Applications (IA) Workshop 1: Material Models for Geotechnical Applications (KW) Both interactive (IA) and keywords (KW) versions of the workshop are provided. Complete only one. 2.5 hours

www.3ds.com Dassault Systèmes Lesson 5: Analysis of Porous Media L5.1 Lesson content: Overview Basic Assumptions and Effective Stress Stress Equilibrium and Flow Continuity Types of Analyses and Usage Saturated Example Problems Partially Saturated Example Problems Workshop 2: Pore Fluid Flow Analysis: Consolidation (IA) Workshop 2: Pore Fluid Flow Analysis: Consolidation (KW) Both interactive (IA) and keywords (KW) versions of the workshop are provided. Complete only one. 2.5 hours

www.3ds.com Dassault Systèmes Lesson 6: Modeling Aspects L6.1 Lesson content: Element Technology Geostatic States of Stress Pore Fluid Surface Interactions Element Addition and Removal Material Wear/Ablation through Adaptive Meshing Reinforced Soil Slopes Modeling Large Deformations in Soils Discrete Element Method DEM Model Definition Applications Tips and Suggestions Workshop 3: Pore Fluid Flow Analysis: Wicking (IA) Workshop 3: Pore Fluid Flow Analysis: Wicking (KW) Workshop 4: Mixing of Granular Media in a Drum Mixer 3 hours Both interactive (IA) and keywords (KW) versions of the workshop are provided. Complete only one.

www.3ds.com Dassault Systèmes Appendix 1: Stress Equilibrium and Fluid Continuity Equations A1.1 Appendix content: General equations Fully saturated fluid flow Partially saturated fluid flow 30 minutes

www.3ds.com Dassault Systèmes Appendix 2: Bibliography of Geotechnical Example Problems A2.1 Appendix content: Abaqus Example Problems Abaqus Benchmark Problems This appendix provides a list of Abaqus Example and Benchmark Problems that show the use of capabilities for geotechnical modeling 5 minutes

www.3ds.com Dassault Systèmes Appendix 3: Infinite Domains A3.1 Appendix content: Infinite Domains 30 minutes

www.3ds.com Dassault Systèmes Appendix 4: Hydraulic Fracture A4.1 Appendix content: Hydraulic Fracture Coupled Pore Pressure-Displacement Cohesive Elements Hydraulic Fracture with XFEM Enabling Technologies for a 1D Borehole Model Fluid Pipe Elements Fluid Pipe Connectors Elements Input file example for fluid pipe and fluid connector Coupling Fluid Pipe Elements to Continuum and Cohesive Elements Automatic Application of Mechanical Distributed Pressure Load Automatic Application of Nodal Pressures to Fractures Hydraulic Fracture: XFEM and Surface Tie Constraints Hydraulic Fracture: Cohesive Elements and Surface Tie Constraints Consolidation Analysis: Embedded Fluid Pipe Element Multistage Injection Process Using Valve Connectors Submodeling with Fluid Pipe Connectors Modeling Tips Limitations 3 hours