# Lectures

"Introduction to Fluid Dynamics" deals with the description and design of external and internal flows. The present methods are based on potential theory and and the solution of Navier/Stokes equations. Velocity and pressure distribution are calculated for engineering flows. The lift efficiency of aerodynamics profiles and the stresses inside laminar and turbulent liquid transport in closed and open ducts are applications of interest.more...

"Computational Fluid Dynamics" deals with the prediction of flows through numerical approaches and computational methods. The behavior of technical flows is therefore described through mathematical models. The mathematical problem is written as a system of coupled differential equations. The technical problem is ultimately solved through the correct interpretation of the mathematical solution.more...

"Modeling turbulent flow" aims to predict the turbulent flow characteristics in turbulent shear layers and unstable flows. Most of the used models are based on statistical methods for the description of mean velocity profiles and effective momentum diffusion in turbulent flow. The present approaches are characterized by the approximation of turbulent scales and the numerical grid resolution.more...

"Thermo- and fluid dynamics" deals with thermal driven flows and the corresponding changes of density, pressure and temperature. Basic correlations in the fields of gas dynamics and thermo-fluidic behavior of compressible flows are presented. Transonic flows and supersonic shocks are discussed with a causal definition of entropy functions and enthalpy balances.more...

"Micro- and Magneto-Fluid Dynamics" describes a field of study, which deals with molecular motion, inter-molecular forces and the corresponding macroscopic material laws of fluid flow. The ionization process and interaction of charged particles leads to the definition of plasma balance equations. The resulting forces acting on moving charge carriers are described by Magneto-Hydrodynamics (MHD).more...