Thrust Regulation in a Solid Fuel Ramjet using Dynamic Mode Adaptive Control
Parham Oveissi, Gohar T. Khokhar, Kyle Hanquist, Ankit Goel

TL;DR
This paper introduces a novel data-driven adaptive control method called DMAC for precise thrust regulation in solid fuel ramjets, demonstrating robustness and effectiveness through high-fidelity simulations.
Contribution
The paper develops and applies a new adaptive control technique, DMAC, utilizing dynamic mode decomposition for thrust regulation in SFRJs, with extensive robustness analysis.
Findings
DMAC achieves effective thrust control in simulations.
The control method is robust to hyperparameter variations.
Simulation results confirm stable and reliable performance.
Abstract
This paper presents the application of a novel data-driven adaptive control technique, called dynamic mode adaptive control (DMAC), for regulating thrust in a solid fuel ramjet (SFRJ). A high-fidelity computational model incorporating compressible flow theory and equilibrium chemistry is used to simulate the combustion dynamics. An adaptive tracking controller is designed using the DMAC framework, which leverages dynamic mode decomposition to approximate the local system behavior, followed by a tracking controller synthesized around the identified model. Simulation results demonstrate that DMAC provides an effective and reliable approach for thrust regulation in SFRJs. In addition, a systematic hyperparameter sensitivity study is conducted by varying the tuning parameters over several orders of magnitude. The resulting responses show that the closed-loop performance and tracking error…
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Taxonomy
TopicsRocket and propulsion systems research · Computational Fluid Dynamics and Aerodynamics · Combustion and flame dynamics
