This course provides a comprehensive and multidisciplinary introduction to Vibration Control in Machines and Vehicles covering the full spectrum from fundamental theory to advanced industrial applications. Participants will build a strong foundation in resonance, damping, vibration isolation, and dynamic behavior of mechanical systems.
The curriculum integrates theoretical analysis, Finite Element eigenvalue methods, structural modal testing, and multi-body dynamics (MBD) to equip learners with the skills to analyze and model real-world vibration phenomena. The course also explores essential diagnostic tools including FFT-based signal processing, order tracking, transfer path analysis (TPA), vibration dose values (VDV), rotor balancing techniques, and condition monitoring principles widely used in automotive, aerospace, manufacturing, and rotating machinery industries.
Beyond fundamentals, the course highlights practical engineering challenges such as machinery vibration root-cause investigations, vehicle BSR (Buzz, Squeak, Rattle), rough-road excitations, long-cycle fatigue, and driveline torsional vibrations.
Participants also gain insights into modern vibration control techniques such as hydro-mounts, pneumatic suspensions, active vibration control, and novel solutions including centrifugal pendulum absorbers. The program concludes with emerging and intellectually stimulating topics such as non-linear and chaotic vibrations, energy harvesting, and thermo-acoustic vibration phenomenon.