Virtual process chain based on forming technology, joining technology and component testing (lecture)

Aim of the event:

Technical skills:

• Building on the knowledge gained in introductory courses on forming and machining technologies, this advanced course provides auditors with an insight into the latest innovations and developments in research into forming and machining technologies. This enables auditors to gain a deeper understanding of these fields and to learn how to identify innovative developments and assess their potential for application.

Specific key competences:

• Auditors gain an insight into innovative manufacturing processes and current developments in research in the fields of machining and forming technology

Event De­tails

Module number:

L.104.21490

teaching staff:

Prof. Dr.-Ing. Werner Homberg; Prof. Dr. Gerson Meschut; Dr. Serkan Çavdar

Coursetype:

lecture

Organisational unit:

Mechanical Engineering

Listed in the timetable as:

Virtual Process Control

Language of instruction:

German

Min. | Max. number of participants: - | -

Prerequisites / Recommendations:

Mandatory:
Successful completion of the modules to be completed in the 1st and 2nd course semesters as per the study programme.
Recommended:
Knowledge of Mathematics and technical mechanics, as taught in the introductory lectures in Mechanical Engineering, as well as knowledge from ‘Fundamentals of Manufacturing Technology’ and materials science.

Target audience:

Students specialising in Manufacturing Technology and Lightweight Construction with Hybrid Systems, as well as other students in the foundation or main phase of their studies who are seeking an introduction to applied FE modelling within the virtual process chain.

Content:

The representation of real-world processes and states, as well as complete process chains, using computer-aided tools has become indispensable in Mechanical Engineering. This can significantly enhance our understanding of processes, particularly in the fields of metal forming, joining technologies and component testing, whilst reducing the scope of time-consuming, experiment-based testing. The determination of characteristic values, which serve as input parameters for simulation, remains essential despite all technological progress. In the three aforementioned fields of application, the LS-Dyna software, together with its add-on tools, has also become established within industry. This class covers the fundamentals of experimental parameter determination as well as methods for modelling and calculation in LS-Dyna. The course is structured in two parts.
In the first part of the course, an introduction is first given to the basic functionality of LS-Dyna and the structure of the user interface (e.g. LS-PrePost). Subsequently, various aspects of the software that are significant in the field of metal forming are covered in depth. The first part concludes with numerically modelled application examples from the chosen specialisation, which are validated on a random basis against experimental data.
In the second part, the knowledge gained previously is applied to joining technology and component testing. To this end, the determination of the parameters required for the simulation (e.g. tensile specimens, LWF-KS-2 specimens) is first discussed, and the input parameters for the simulation section are derived from experimental data. A component-like model is then constructed, a load is defined, and a corresponding examination is simulated. Finally, the results and the insights gained are evaluated in terms of their plausibility.

VPK con­tact per­son