Course detail

Finite Element Method - Advanced Analyses

FSI-ZBWAcad. year: 2020/2021

Solution of real engineering problems using FEM. Calculation of linear and non-linear analysis of beam structures, stress-strain analysis of machine parts, contact analysis, modal analysis, heat transfer, basics of CFD analysis and topological optimalization. Emphasis is placed also on the analysis and interpretation of results, which is an inseparable part of FEM analyses.

Learning outcomes of the course unit

Students will significantly extend their knowledge in the field of FEM. They will learn to work in ANSYS Workbench environment. Due to analysis of real components and structures, they will learn self-reliance in the FEM calculations.

Prerequisites

- Knowledge of mechanics, dynamics, strength of materials, CAD modelling and material sciences at the level of bachelor's study of mechanical engineering. - passing course Finite element method - Structural analyses.

Co-requisites

Not applicable.

Recommended optional programme components

Not applicable.

Recommended or required reading

ANSYS Student Support Resources. [Online] Dostupné z: https://www.ansys.com/academic/free-student-products/support-resources.
KUROWSKI, Paul M., Finite Element Analysis for Design Engineers. Second edition. SAE International, 2017. ISBN-PDF 978-0-7680-8369-9. [online] Dostupné z: https://app.knovel.com/web/toc.v/cid:kpFEADEE04/viewerType:toc//root_slug:finite-element-analysis/url_slug:finite-element-analysis?b-q=kurowski&sort_on=default&b-group-by=true&b-sort-on=default&b-content-type=all_references&include_synonyms=no
RUGARLI, Paolo. Structural analysis with finite elements. Thomas Telford Limited, 2010. ISBN 978-0-7277-4093-9. [online] Dostupné z: https://app.knovel.com/web/toc.v/cid:kpSAFE0003/viewerType:toc//root_slug:structural-analysis-with/url_slug:structural-analysis-with?b-q=rugarli&sort_on=default&b-group-by=true&b-sort-on=default&b-content-type=all_references

Planned learning activities and teaching methods

Lectures, seminars, self-study.

Assesment methods and criteria linked to learning outcomes

Course credit is awarded on the following conditions:
- active taking part in the lectures (max. 10 points),
- solving of assigned tasks and presentation of results (max. 30 points),
- at least it is necessary to get 20 points.
Exam is awarded on the following conditions:
- practical part: methodically correct solution of assigned task (max. 40 points),
- oral exam (max. 20 points),
- together one can obtain up to 100 points, final grade is determined in accordance with ECTS grading scale.

Language of instruction

Czech

Work placements

Not applicable.

Aims

Aim of the course is to extend students’ knowledge in area of finite element methods (FEM), while practicing ANSYS Workbench software. Emphasis is placed on acquiring comprehensive knowledge about FEM analyses through practical exercises focused on: computational model creation; correct solver settings, solution and interpretation of the results.

Specification of controlled education, way of implementation and compensation for absences

Attendance at practicals is obligatory and checked by the lecturer. One excused absence can be tolerated without compensation. In case of longer absence, compensation of missed lessons depends on the instructions of course supervisor.

Classification of course in study plans

  • Programme M2I-P Master's

    branch M-KSI , 2. year of study, winter semester, 4 credits, compulsory

Type of course unit

 

Lecture

16 hours, optionally

Teacher / Lecturer

Syllabus

- FEM: types of analyses, parametric model, interpretation, verification and validation of results.
- Steady-state thermal analysis.
- Introduction to CFD.
- Introduction to multiphysics analysis
- Introduction to dynamics: rigid body, transient dynamics analysis.
- Optimization.
- Explicit dynamics: impact, forming, blast.
- Simulation of additive manufacturing processes.

Computer-assisted exercise

32 hours, compulsory

Teacher / Lecturer

Syllabus

- Parametric geometry, advanced meshing, advanced material models.
- Thermal analysis of part.
- CDF analysis of valve, air flow around part.
- Simple multiphysics analysis, FSI, CFD analysis of flow and heat transfer.
- Rigid body dynamics, response of part/structure to vibration.
- Drop test of part, energy absorber.
- Topological optimalization, part geometry optimalization.
- Final seminar, presentation of results.