FE-Modelling, Simulation and Validation
| Lecturer (assistant) | |
|---|---|
| Duration | 2 SWS |
| Term | Wintersemester 2023/24 |
| Position within curricula | See TUMonline |
| Dates | See TUMonline |
Dates
- 20.10.2023 13:15-14:45 3238, Cip-Raum
- 27.10.2023 13:15-14:45 3238, Cip-Raum
- 03.11.2023 13:15-14:45 3238, Cip-Raum
- 10.11.2023 13:15-14:45 3238, Cip-Raum
- 17.11.2023 13:15-14:45 3238, Cip-Raum
- 24.11.2023 13:15-14:45 3238, Cip-Raum
- 01.12.2023 13:15-14:45 3238, Cip-Raum
- 08.12.2023 13:15-14:45 3238, Cip-Raum
- 15.12.2023 13:15-14:45 3238, Cip-Raum
- 22.12.2023 13:15-14:45 3238, Cip-Raum
- 12.01.2024 13:15-14:45 3238, Cip-Raum
- 19.01.2024 13:15-14:45 3238, Cip-Raum
- 26.01.2024 13:15-14:45 3238, Cip-Raum
- 02.02.2024 13:15-14:45 3238, Cip-Raum
- 09.02.2024 13:15-14:45 3238, Cip-Raum
Admission information
See TUMonline
Note: please sign up in TUMonline for this course
Note: please sign up in TUMonline for this course
Objectives
Upon completion of this course the student will be able to perform numerical simulations with a FEM tool for structural problems. This includes modelling of the physical problem, simulation of problems like panel/plate/shell and continuum structures, as well as validation of results.
Description
Modelling and Simulation of structural problems with the Finite Element Method (FEM). This course has a strong focus on hands-on exercises in the computer room using a commercial FEM software (e.g. Ansys). Topics will be (example list): plane stress problems, 3d analyses, use of symmetry, stress singularities, convergence study, validation of results and plausibilty, modelling of nonlinear material behaviour (elasto-plasticity), nonlinear structural behaviour (buckling), geometric nonlinearities (contact), optimization, thermal analysis.
Prerequisites
Basics of FEM, mechanical understanding
Teaching and learning methods
theoretical introduction, hands-on exercises with computer software, tutoring
Examination
schriftliche Prüfung