Offer 1
3D Simulation of Vibration-Assisted Drilling
English summary
The project is to develop a 3D simulation of vibration-assisted drilling based on a kinematic model, accounting for varying process parameters and drill geometries. Students will model produced chips and may also estimate theoretical forces and feed rates. The work concerns drilling rivet holes in multi-layer material stacks for the aerospace industry; previous 3D simulation and manufacturing-process experience is desirable.
Overview
- Project details
- 3D Simulation of Vibration-Assisted Drilling
Source excerpt · Page 1
- “# **3D Simulation of Vibration-Assisted Drilling**” Page 1 ↗
- Organization
- Not stated in the PDF
- Project formats
- Not stated in the PDF
- Degree levels
- Not stated in the PDF
- Project goal
- Develop a 3D simulation of vibration-assisted drilling to model produced chips and, ideally, estimate theoretical forces and feed rates.
Source excerpt · Page 1
- “The goal is to model the chips produced and, ideally, to estimate the theoretical forces and feed rates.” Page 1 ↗
Topics and work
- Subjects
- vibration-assisted drilling
Source excerpt · Page 1
- “Vibration-assisted drilling (VAD) is increasingly used for drilling rivet holes in multi-layer material stacks in the aerospace industry.” Page 1 ↗
- drill geometries
Source excerpt · Page 1
- “To make it easier to estimate process parameters during process design and, in particular, to estimate the influence of complex drill geometries, a 3D simulation of the process is to be developed based on the corresponding kinematic model.” Page 1 ↗
- chip formation
Source excerpt · Page 1
- “The goal is to model the chips produced and, ideally, to estimate the theoretical forces and feed rates.” Page 1 ↗
- vibration-assisted drilling
- Application areas
- drilling rivet holes in multi-layer material stacks in the aerospace industry
Source excerpt · Page 1
- “Vibration-assisted drilling (VAD) is increasingly used for drilling rivet holes in multi-layer material stacks in the aerospace industry.” Page 1 ↗
- drilling rivet holes in multi-layer material stacks in the aerospace industry
- Methods and tools
- kinematic model
Source excerpt · Page 1
- “a 3D simulation of the process is to be developed based on the corresponding kinematic model.” Page 1 ↗
- 3D simulation
Source excerpt · Page 1
- “Select a suitable tool and develop a 3D simulation that accounts for varying process parameters and drill geometries.” Page 1 ↗
- kinematic model
- Activities
- Select a suitable tool
Source excerpt · Page 1
- “Select a suitable tool and develop a 3D simulation that accounts for varying process parameters and drill geometries.” Page 1 ↗
- Develop a 3D simulation that accounts for varying process parameters and drill geometries
Source excerpt · Page 1
- “Select a suitable tool and develop a 3D simulation that accounts for varying process parameters and drill geometries.” Page 1 ↗
- Model the chips produced
Source excerpt · Page 1
- “The goal is to model the chips produced and, ideally, to estimate the theoretical forces and feed rates.” Page 1 ↗
- Ideally, estimate the theoretical forces and feed rates
Source excerpt · Page 1
- “The goal is to model the chips produced and, ideally, to estimate the theoretical forces and feed rates.” Page 1 ↗
- Select a suitable tool
- Kinds of work
- Modeling and simulation
Source excerpt · Page 1
- “Select a suitable tool and develop a 3D simulation that accounts for varying process parameters and drill geometries.” Page 1 ↗
- Modeling and simulation
- Expected outputs
- 3D simulation of the process
Source excerpt · Page 1
- “a 3D simulation of the process is to be developed based on the corresponding kinematic model.” Page 1 ↗
- 3D simulation of the process
Requirements
- Required skills
- An independent and reliable approach to work
Source excerpt · Page 1
- “An independent and reliable approach to work, together with curiosity and a willingness to learn about new topics, is important.” Page 1 ↗
- Curiosity
Source excerpt · Page 1
- “An independent and reliable approach to work, together with curiosity and a willingness to learn about new topics, is important.” Page 1 ↗
- A willingness to learn about new topics
Source excerpt · Page 1
- “An independent and reliable approach to work, together with curiosity and a willingness to learn about new topics, is important.” Page 1 ↗
- An independent and reliable approach to work
- Recommended skills
- Previous experience with 3D simulation and relevant software
Source excerpt · Page 1
- “Previous experience with 3D simulation and relevant software (e.g. Unity, Unreal, or similar), as well as experience with manufacturing processes and chip formation (such as drilling, milling, or turning) is desirable.” Page 1 ↗
- Experience with manufacturing processes and chip formation
Source excerpt · Page 1
- “Previous experience with 3D simulation and relevant software (e.g. Unity, Unreal, or similar), as well as experience with manufacturing processes and chip formation (such as drilling, milling, or turning) is desirable.” Page 1 ↗
- Previous experience with 3D simulation and relevant software
- Eligible study fields
- Not stated in the PDF
- Programming in the project
- Not stated in the PDF
- Programming prerequisite
- Not stated in the PDF
Practical details
- Team size
- Not stated in the PDF
- Duration
- Not stated in the PDF
- Start
- Not stated in the PDF
- Application deadline
- Not stated in the PDF
- Work location
- Not stated in the PDF
- Location mode
- Not stated in the PDF
Learning and support
- Learning opportunities
- Not stated in the PDF
- Support offered
- Not stated in the PDF
Application and contacts
- Contacts
- M. Eng. Markus Tesch · markus.tesch@iwb.tum.de
Source excerpt · Page 1
- “**M. Eng. Markus Tesch M. Sc. Charlotte Winkler** Machine Tools Department Machine Tools Department markus.tesch@iwb.tum.de charlotte.winkler@iwb.tum.de” Page 1 ↗
- M. Sc. Charlotte Winkler · charlotte.winkler@iwb.tum.de
Source excerpt · Page 1
- “**M. Eng. Markus Tesch M. Sc. Charlotte Winkler** Machine Tools Department Machine Tools Department markus.tesch@iwb.tum.de charlotte.winkler@iwb.tum.de” Page 1 ↗
- M. Eng. Markus Tesch · markus.tesch@iwb.tum.de
- How to apply
- Not stated in the PDF
- Further information
- Not stated in the PDF