6 1/2 X 9 7/16 in 1. Invited Lectures



Rapid techniques for measuring and modeling turbulent flows in complex geometries


Large-Eddy-Simulation of complex flows using the immersed boundary method


Transition modelling for general purpose CFD codes


Possibilities and limitations of computer s imulations of industrial turbulent multiphase flows




2. Turbulence Modelling< BR id='CRLF'>


Turbulence Model and its application to forced and natural convection


Cal ibrating the length scale equation with an explicit algebraic Reynolds s tress constitutive relation


Near-wal l modification of an explicit algebraic Reynolds stress model using elli ptic blending


Assessment of turbulen ce models for predicting the interaction region in a wall jet by referen ce to LES solution and budgets


Eddy reciprocating engines, industrial aerodynamics and wind engineering, and selected chemical engineering problems Turbulence remains one of the key issues in tackling engineering flow problems. These problems are solved more and more by CFD analysis, the reliability of which depends strongly on the performance of the turbulence models employed. Successful simulation of turbulence requires the understanding of the complex physical phenomena involved and suitable models for describing the turbulent momentum, heat and mass transfer. For the understanding of turbulence phenomena, experiments are indispensable, but they are equally important for providing data for the development and testing of turbulence models and hence for CFD software validation. As in other fields of Science, in the rapidly developing discipline of turbulence, swift progress can be achieved only by keeping up to date with recent advances all over the world and by exchanging ideas with colleagues active in related fields.