| (*)Specifically, they are able to:
Master the fundamentals and applications of micromechanics in plastics engineering [k2].
Perform structural simulations and use the results to improve product design [k3].
Evaluate complex material models and their impact on component design [k4].
Apply simulation and optimization techniques to maximize the performance of plastic components [k5].
Interpret results from simulations and experiments and make informed design decisions [k6].
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(*)Fundamentals and advanced techniques of injection molding: Process parameters and material flow analysis (filling).
Micromechanics of polymers: Structure-property relationships, microstructural analysis, reinforcement effects.
Structural simulation: Finite element methods (FEM), simulation software, validation of simulation models.
Material models: Elastic, viscoelastic, plastic, and hyperelastic models.
Application of simulation results: Product design, failure analysis, lifespan prediction.
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