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t.BA.WV.CLWD2.19HS (Computational Light Weight Design 2)
Module: Computational Light Weight Design 2
This information was generated on: 06 May 2024
No.
t.BA.WV.CLWD2.19HS
Title
Computational Light Weight Design 2
Organised by
T IMES
Credits
4
Description
Version: 2.0 start 01 February 2021
Short description
The course introduces the design principles of lightweight structures, in particular selected calculation methods for static, fatigue-resistant and stable dimensioning. The focus is on numerical methods, and their application is demonstrated and treated in greater depth in practical lessons.
Module coordinator
Pfrommer Ralf, pfro
Learning objectives (competencies)
Objectives
Competences
Taxonomy levels
Can compile a design specification for a highly loaded lightweight structure.
F, M
K3
Can define load cases and verification concepts, also deriving them on the basis of component-specific standards.
F, M
K3
Can explain the necessary design calculations for lightweight structures and their respective application.
F, M
K2
Can carry out and evaluate design calculations with regard to various types of loadcases for simple lightweight constructions.
F, M
K3
Can describe experimental methods for determining mechanical quantities and evaluate measurements.
F, M
K3
Can carry out simple topology and structural optimization calculations and use mathematical software for the calculation of structural lightweight construction problems.
F, M
K3
Module contents
1. Design principles
1.1 Compilation of a design specification
1.1.1 Sense and purpose, content
1.1.2 Load cases, safety concepts, permissible stresses, verification concepts
1.2 Introduction to standards for highly stressed lightweight structures
1.2.1 Example of rail vehicles
1.2.2 Example of aircraft
2. Calculation and verification methods
2.1 Overview of the different procedures
2.2 Static strength and stiffness
2.2.1 Energy methods
2.2.2 Calculation examples by hand / FEM
2.3 Fatigue strength
2.3.1 Notch effects, rainflow counts, load collectives, degrees of utilization
2.3.2 Calculation examples with Excel / MATLAB according to the FKM guideline
2.4 Stability
2.4.1 Eigenvalue problems, buckling of bars and sheet metal fields
2.4.2 Calculation examples by hand / FEM
2.5 Measurement of mechanical quantities
2.5.1 Strain gauges
2.5.2 Acceleration sensors and vibrometers
3. Numerical internship
3.1 Structure, topology and parametric optimization
3.2 Practical FEM calculations
3.3 Use of MATLAB
Teaching materials
Transcript of the lecture, documents from the lecturers on selected chapters
Supplementary literature
Klein, B., Gänsicke, T.:
Leichtbau-Konstruktion:
Dimensionierung, Strukturen, Werkstoffe und Gestaltung. Springer-Vieweg, 11. Aufflage, Wiesbaden (2019).
Prerequisites
Teaching language
(X) German ( ) English
Part of International Profile
( ) Yes (X) No
Module structure
Type 3a
For more details please click on this link:
T_CL_Modulauspraegungen_SM2025
Exams
Description
Type
Form
Scope
Grade
Weighting
Graded assignments during teaching semester
exam
written
45 min
graded
20 %
End-of-semester exam
exam
written
90 min
graded
80 %
Remarks
Legal basis
The module description is part of the legal basis in addition to the general academic regulations. It is binding. During the first week of the semester a written and communicated supplement can specify the module description in more detail.
Course: Computational Light Weight Design 2 - Praktikum
No.
t.BA.WV.CLWD2.19HS.P
Title
Computational Light Weight Design 2 - Praktikum
Note
No module description is available in the system for the cut-off date of 01 August 2099.
Course: Computational Light Weight Design 2 - Vorlesung
No.
t.BA.WV.CLWD2.19HS.V
Title
Computational Light Weight Design 2 - Vorlesung
Note
No module description is available in the system for the cut-off date of 01 August 2099.