Chair of Fluid Dynamics

Our team, led by Prof. Dr.-Ing. Andreas Kempf, Apl. Prof. Dr. Khadijeh Mohri, and Dr.-Ing. Irenäus Wlokas, develops and tests methods for the simulation, measurement, and optimization of reactive flows, flames, and detonations in facilities such as chemical reactors, gas turbine combustion chambers, hydrogen systems, piston engines, and iron direct reduction plants. Our methods shorten development times, minimize pollutants, and offer deep insights into processes and physics, enabling the development of cost-efficient, flexible, and safe facilities with significantly reduced emissions.


The complex processes in synthesis and combustion plants require a detailed numerical description of reaction and transport processes. Through simulations, we gain insights into areas inaccessible to measurement techniques, investigate isolated subprocesses and their interactions, and bridge the gap between laboratory and industrial scales. To achieve this, we develop and implement numerical models and methods for describing and simulating turbulent combustion of multiphase flows and reaction kinetics.


Our tomographic measurement techniques, developed at our institute, allow us to capture the dynamics of complex, three-dimensional flows of gases and liquids without disturbing the process.


Our work is funded by the state of North Rhine-Westphalia, the German Research Foundation (DFG), the Federal Ministry for Economic Affairs and Climate Action (BMWK), the German Federation of Industrial Research Associations (AiF), national and international high-performance computing centers, and numerous companies in the fields of installation, power plant, and plant engineering.


At the University of Duisburg-Essen, our group is closely networked with the groups of CENIDE (Center for Nano-Integration Duisburg-Essen), NETZ (Nano Energy Technology Center), ZBT (Center for Fuel Cell Technology), and CCSS (Center for Computational Sciences and Simulation). As a member of EMPI, we provide detailed simulation results and utilize essential data from the experiments of partner groups.


Studying at our institute imparts competencies in flow simulation, the description of reacting flows, turbulence modeling, and numerical methods.

Updates

© UDE/Birte Vierjahn

02.12.2024 High-Performance Supercomputer amplitUDE

Officially inaugurated by Ina Brandes, Minister for Culture and Science of North Rhine-Westphalia, and Prof. Dr. Barbara Albert, Rector of the University of Duisburg-Essen (UDE), the launch of the new supercomputer amplitUDE will not only support advanced research but also set new standards in energy efficiency.

Read more

27.11.2024 Apl. Prof. awarded to Dr. Khadijeh Mohri

Congratulations, Prof. Mohri! We are very proud and excited for your achievement.

03.04.2023 Sponsor run in Dorsten - breast cancer needs attention

Every eighth woman is diagnosed with breast cancer once in her life. UDE Prof. Khadijeh Mohri has survived the disease and wants to encourage other women with a charity run.  Link for further information: www.brustkrebshilfe-dorsten.de

06.10.2022 CENIDE Best Paper Award 2022

Congratulations to our Tomography Group Team for the CENIDE Best Paper Award 2022!

21.11.2024 - 10:32:44

An Eulerian-Lagrangian decomposition for scalar transport at high schmidt number with adaptive particle creation and removal


At high Schmidt or Prandtl numbers, scalar length scales are much smaller than velocity scales, requiring fine grids and careful management …
More

09.06.2024 - 14:22:11

Statistics of detonation confinement: 1D, 2D and 3D simulations in hydrogen–oxygen


The important role of confinement on detonations is examined by detailed numerical simulations in 1D, 2D and 3D, for circular and rectangular …
More

14.09.2023 - 11:10:34

Turbulence effects on the formation and growth of nano-particles in three-dimensional premixed and non-premixed flames


Using massively parallel Direct Numerical Simulation, the influence of turbulence on the synthesis process of nanoparticles in premixed and …
More

11.07.2023 - 10:06:06

Direct numerical simulation of an unsteady wall-bounded turbulent flow configuration for the assessment of large-eddy simulation models


The dynamics of unsteady turbulent boundary layers are investigated in a simplified benchmark case based on the famous Taylor-Green Vortex. …
More

23.05.2023 - 12:58:48

Investigation of an Atmospheric Gas Turbine Model Combustor with Large-Eddy Simulation Using Finite-Rate Chemistry


A reduced kinetic mechanism was developed as a basis for the accelerated computation of thermoacoustic instabilities in gas turbines with …
More