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Institut für Hydromechanik

KIT Campus Süd
Institut für Hydromechanik
D-76131 Karlsruhe

KIT Campus Süd
Institut für Hydromechanik
Otto-Ammann-Platz 1
Gebäude Nr. 10.81  

+49 721 608-42200

+49 721 608-42202

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Willkommen am Institut für Hydromechanik (IfH)





Information zur den Lehrveranstaltungen im SS 2018:

Modul “Experimental Methods and Physical Experiments“ (1V/3Ü) wird im SS 2018 NICHT angeboten.

Mögliche Alternative: Modul "Technische Hydraulik/Stationärer und instationärer Betrieb von hydraulischen Anlagen“ (2V/2Ü), Di 09:45 - 13:00 Uhr
(Inhalt: siehe Ilias 2017)

Besuch des Korrosionsschutzlabors der BAW Karlsruhe

Kurs „Wechselwirkung Strömung-Wasserbauwerk“ (S. 254) - 3. Sem., Masterstudiengänge Bauingenieurwesen und Water Science & Engineering

Direct Numerical Simulation of the Formation of Subaqueous Sediment Patterns: Evolution Beyond the Initial Formation

This project has investigated the problem of sediment transport and subaqueous pattern formation by means of high-fidelity direct numerical simulations which resolve all the relevant scales of the flow and the sediment bed. In order to realistically capture the phenomenon, sufficiently large computational domains with up to several billion grid nodes are adopted, while the sediment bed is represented by up to a million mobile spherical particles. The study provides a unique set of spatially and temporally resolved information on the flow field and the motion of individual particles which make up the sediment bed, providing novel insight into the different mechanisms involved in the processes of sediment pattern formation.

Direct Numerical Simulation of Fully-Rough Open-Channel Flow Over Spherical Roughness Elements

Open channel flow can be considered as a convenient "laboratory" for investigating the physics of the flow in rivers. One open questions in this field is related to the influence of a rough boundary (i.e. the sediment bed) upon the hydraulic properties, which to date is still unsatisfactorily modelled by common engineering-type formulae. The present project aims to provide the basis for enhanced models by generating high-fidelity data of shallow flow over a bed roughened with spherical elements in the fully rough regime. In particular, the influence of the roughness Reynolds number and of the spatial roughness arrangement upon the turbulent channel flow structure is being studied.