Course Details
Mathematical Modeling of Geotechnical Constructions
Academic Year 2023/24
BFB008 course is part of 1 study plan
BPC-SI / K Summer Semester 4th year
The course is mainly focused on geotechnical constructions analyses using the finite element method. In the first part of the course, basics of continuum mechanics will be repeated. The major emphasis is placed on a description of soil constitutive models, starting with the simplest elastic models, continuing with more complicated models involving plastic (irreversible) component of strain. In the following part of the course, students will become familiar with the process of creating a mathematical model both from a theoretical and practical point of view. Acquired knowledge will be applied in order to solve various types of geotechnical constructions (shallow foundations, deep foundations, earth retaining structures, embankments, cuts, underground structures) using Plaxis 2D software. In the last part of the course, students will prepare and present their individual projects.
Course Guarantor
Institute
Objective
To obtain theoretical basics of the mathematical modelling of geotechnical problems.
To learn to utilise selected software for design of geotechnics structures.
To learn to utilise selected software for design of geotechnics structures.
Knowledge
Main output is acquiring knowledge build-up of mathematical model selected geotechnical problems (slope stability, reinforcement soil, retaining wall and tunnel). It means definition the boundary conditions, selection constitutional models etc. The selected themes are educated on the concrete examples using software on the Department of Geotechnics.
Syllabus
1. Introduction, basic aspects and reasons of applying numerical methods in geotechnics, examples of practical applications.
2. Continuum mechanics – summarization, review of numerical methods. Review of soil constitutive models.
3. Introduction to the finite element method. Linear, non-linear elasticity.
4. Introduction to the plastic behavior of geomaterials.
5. Perfectly plastic constitutive models.
6. Elastic – plastic constitutive models with hardening.
7. Undrained versus drained analysis, consolidation analysis.
8. Theory and modeling of foundations.
9. Theory and modeling of earth retaining structures, excavations.
10. Theory and modeling of earth constructions. Stability analysis.
11. Theory and modeling of underground structures.
2. Continuum mechanics – summarization, review of numerical methods. Review of soil constitutive models.
3. Introduction to the finite element method. Linear, non-linear elasticity.
4. Introduction to the plastic behavior of geomaterials.
5. Perfectly plastic constitutive models.
6. Elastic – plastic constitutive models with hardening.
7. Undrained versus drained analysis, consolidation analysis.
8. Theory and modeling of foundations.
9. Theory and modeling of earth retaining structures, excavations.
10. Theory and modeling of earth constructions. Stability analysis.
11. Theory and modeling of underground structures.
Prerequisites
Soil mechanics, Foundation Engineering, Underground structures, Elasticity and plasticity
Language of instruction
Czech
Credits
4 credits
Semester
summer
Forms and criteria of assessment
course-unit credit and examination
Specification of controlled instruction, the form of instruction, and the form of compensation of the absences
Extent and forms are specified by guarantor’s regulation updated for every academic year.
Offered to foreign students
Not to offer
Course on BUT site
Lecture
13 weeks, 2 hours/week, elective
Syllabus
1. Introduction, basic aspects and reasons of applying numerical methods in geotechnics, examples of practical applications.
2. Continuum mechanics – summarization, review of numerical methods. Review of soil constitutive models.
3. Introduction to the finite element method. Linear, non-linear elasticity.
4. Introduction to the plastic behavior of geomaterials.
5. Perfectly plastic constitutive models.
6. Elastic – plastic constitutive models with hardening.
7. Undrained versus drained analysis, consolidation analysis.
8. Theory and modeling of foundations.
9. Theory and modeling of earth retaining structures, excavations.
10. Theory and modeling of earth constructions. Stability analysis.
11. Theory and modeling of underground structures.
Exercise
13 weeks, 2 hours/week, compulsory
Syllabus
1. Introduction to the used software.
2. Structural and interface elements.
3. Numerical analysis of shallow foundations.
4. Numerical analysis of deep foundations.
5. Simulation of laboratory tests.
6. Numerical analysis of propped retaining structures.
7. Numerical analysis of anchored retaining structures.
8. Numerical analysis of embankments.
9. Solution of an individual task.
10. Solution of an individual task.
11. Presentation of an individual task.