August 14, 2025DesignsOpen Access

Contribution to the Topological Optimization of Reactive Flows

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Achieving reaction efficiency improvements ranges from 90.4% to 105.2% for optimized geometries, with substantial gains noted.
The method employs an adjoint method to compute gradients efficiently, facilitating the use of gradient-based algorithms.
Topology optimization applied to a benchmark bend-pipe case corroborated known optimal geometric configurations.
This approach may enhance flow designs relevant to modern gas turbines, suggesting practical industry applications.

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Density-based topology optimization improves reaction efficiency in systems involving second-order reactive flows, indicating significant gains.

Pancin et al. (2025) studied this question.

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Density-based topology optimization improves reaction efficiency in systems involving second-order reactive flows, indicating significant gains.