Research at the Chair of Reactive Flows

Diagram ranking methods from computational time and cost. 1D acoustics or flame solvers take seconds while highly resolved LES can take weeks. Diagram ranking methods from computational time and cost. 1D acoustics or flame solvers take seconds while highly resolved LES can take weeks. Diagram ranking methods from computational time and cost. 1D acoustics or flame solvers take seconds while highly resolved LES can take weeks.

Research at the Chair of Reactive Flows encompasses a wide range of methods for investigating the interaction of thermoacoustics, chemistry and flow. The aim is to gain a deeper understanding of coupled physical processes in reactive systems, as well as their numerical description and modelling. A variety of methodological approaches are employed – ranging from idealised one-dimensional flame and acoustic simulations to high-resolution Large Eddy Simulations (LES) of reactive flows, as well as data- and physics-based modelling approaches for the analysis and reconstruction of complex dynamics.

Research at the Chair of Reactive Flows encompasses a wide range of methods for investigating the interaction of thermoacoustics, chemistry and flow. The aim is to gain a deeper understanding of coupled physical processes in reactive systems, as well as their numerical description and modelling. A variety of methodological approaches are employed – ranging from idealised one-dimensional flame and acoustic simulations to high-resolution Large Eddy Simulations (LES) of reactive flows, as well as data- and physics-based modelling approaches for the analysis and reconstruction of complex dynamics.