Suspension Design for EPFL Racing Team

Related lectures (30)

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Explores the rheology of suspensions, covering viscosity, particle interactions, and dynamic effects.

Explores mixing properties of infinite measure preserving systems, focusing on suspensions, Govers transformations, and Lorentz gas.

Delves into designing an in-wheel Formula Student wheel assembly for enhanced performance and sustainability.

Covers the typical functions of springs, including exerting precise forces, storing and releasing energy, and filtering vibrations.

Explores rheology, mixing, and granulation processes in powder treatment for ceramics and superplasticizers in suspensions.

Covers the redesign of a Formula Student race car's suspension system.

Covers the implementation of in-wheel electrical motor systems for the EPFL Racing Team car, enhancing performance and competitiveness.

Covers powder treatment, rheology, mixing, granulation, and cement production in ceramic processing, emphasizing flow behavior and superplasticizers.

Analyzes control systems in chassis dynamics, focusing on automobile suspension systems.

Explores electric motor principles, linearity, control systems, active suspensions, and Laplace transforms.