ICISS on Near-Wall Reactive Flows
Virtual Summer School, June, 7th-10th 2021

Successful International Combustion Institute Summer School (ICISS) on Near-Wall Reactive Flows from June, 7th to 10th 2021 as a virtual event

16 pre-recorded lectures by renowned scientists

22 research pitches by PhD students and postdocs

75 posters by participants from all over the world

more than 200 attendees from more than 30 countries

Live interaction between lecturers and attendees by Q/A-Sessions, research pitch presentations and poster sessions for more than 3 hours per day. Discussions about chemistry and physics focusing on the fields of combustion, energy science, turbulent or multiphase flow, fluid mechanics, kinetics, laser diagnostics, thermodynamics or heat transfer have given participants new insights and impulses for their future research.

The Organizing Committee under the leadership of Prof. Dr. Andreas Dreizler, TU Darmstadt, Germany, thanks all participants for the successful 4 days.

Advances in various engineering and process applications necessitate better understanding of underlying surface processes and near-wall phenomena. High-temperature material synthesis and processing, engine heat transfer and combustion, and chemical process technology (chemical vapor deposition and infiltration, catalytic processes, etc.) are just a few familiar examples. Processes, such as surface reconstruction, surface material damage, material deposition, film growth and material etching, wall-flame interaction, surface reactions and their coupling with chemically reactive flows, are only a few examples to be addressed in future research efforts.

Focusing especially on flame-wall interactions, these phenomena have attracted the attention of the research community with increasing demands on combustion technology in terms of reducing fuel consumption and pollutant formation. In modern combustion processes such as low-NOx gas turbine combustion or internal combustion engine combustion in decreasing cylinder volumes and higher charging (downsizing), an intense exchange of heat and momentum with combustion chamber walls takes place, which, in turn, strongly affects species concentration in boundary layers (unburned hydrocarbons, carbon monoxide). Near the wall there is a sudden temperature drop occurring in a narrow region of less than a few flame thicknesses causing large temperature gradients.

This may lead to major modifications of the flame structure, chemical reaction pathways, and the fluid dynamics. In order to well account for such near-wall effects and heat transfer occurring in this thin region in the design of technology and engineering processes, appropriate techniques in experimental measurements, chemical kinetics and numerical modeling of such complex novel processes need to be considered and disseminated.

Title Name Surname University
1 Dr. Robert Barlow Sandia National Laboratories, USA
2 Dr. Benjamin Böhm TU Darmstadt, Germany
3 Prof. Dr. Olaf Deutschmann KIT, Germany
4 Prof. Dr. Andreas Dreizler TU Darmstadt, Germany
5 Prof. Dr. Tiziano Faravelli Politecnico di Milano, Italy
6 Prof. Dr. Bettina Frohnapfel KIT, Germany
7 Prof. Dr. Christos Emmanouil Frouzakis ETH Zürich, Switzerland
8 Prof. Dr. Kemal Hanjalić TU Delft, The Netherlands
9 Prof. Dr. Christian Hasse TU Darmstadt, Germany
10 Prof. Dr. Katharina Kohse-Höinghaus Univ. Bielefeld, Germany
11 Dr. Philippe Leick Bosch AG, Germany
12 Prof. Dr. Ulrich Maas KIT, Germany
13 Prof. Dr. Thierry Poinsot CERFACS, France
14 Prof. Dr. Cameron Tropea TU Darmstadt, Germany
15 Prof. Dr. Martin Votsmeier Umicore AG, Germany
16 Prof. Dr. Margaret Wooldridge Univ. of Michigan, USA