Motivation
The research aims to reduce or replace critical materials like tungsten carbide and cobalt in hardmetal tools while maintaining high performance. To achieve this goal, two simulations focusing on the milling tool will be conducted with PFEM (Particle Finite Element Method):
- Tool production process using additive manufacturing process (HS-DED-L)
- Simulate HS-DED-L process (additive manufacturing)
- Track powder melting and mixing
- Model particle size and its composition
- Predict mechanical properties from microstructure
- Optimize primary and recycled powder utilization proportion
- Milling process to evaluate the tool’s performance
- Stress distribution in tool
- Frictional behavior at the contact interface
- Temperature evolution during milling
- Tool wear prediction
- Layer adhesion and cohesion
Particle Finite Element Method
The Particle Finite Element Method (PFEM) is a simulation technique that starts by representing the material as a collection of particles, which are then connected to form a finite element mesh. In context of manufacturing process simulation it offers advantages such as:
- Simulates material addition and removal using particles
- Maintains high mesh quality through intermediate remeshing
- Ideal for large deformation scenarios in solids
- Handles complex contact and impact problems with ease
Contact
Paras Kadam, M.Sc.
E-Mail: paras.kadam[at]mv.rptu.de
Tel: +49 (0) 631/205-4456
Yating Wei, M.Sc.
E-Mail: yating.wei(at)mv.rptu.de
Tel: +49 (0) 631/205-4425
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