- Vibration of mechanical systems, machines and structures (numerical and experimental determination of stress, strain acceleration and displacement fields).
- Optimal design, dynamic analysis of vehicles, aeral vehicles, structures and mechanical systems in general using Finite Element and Multibody Analysis.
- Dynamics, vibration and stability of multi-body systems and mechanisms.
- Experimental measurement, modal analysis, parametric modal identification and evaluation of vibration characteristics (natural frequencies, mode shapes, damping ratios).
- Noise, vibration and harshness (NVH) of vehicle models – automatic determination of passenger fatigue limits.
- Damage diagnosis and prognosis, fault detection and structural health monitoring of structures and machines.
- Fluid-structure interaction in liquid-filled tanks, liquid fuel vehicles and aerial vehicles.
- Multi-objective optimization and vibration control of complex dynamical systems.
- Optimization of mechanical dynamic systems and process systems.
- Dynamics of geared rotor-bearing systems, (coupled bending-torsional vibrations, balancing, alignment, flywheels).
- Rotordynamic analysis.
- Response and stability of systems with impacting components and friction.
- Design of vibration absorbers for vibration and noise reduction.
- Vibration isolation of mechanical and seismically excited ground-supported structures.
- Prediction and elimination of self-excited vibration.
- Bio-kinematics and dynamics of human body models.
- Vibration control and noise reduction by design of damping systems.
- Dynamic calculation of mechanical device foundations. Seismic response of structures.
- Design of automatic control systems for mechanical and electrical systems.
- Optimal design and control of carbon dioxide capture systems from flue gases and industrial gas streams.
- Navigation and control systems for air and ground vehicles.
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