Hovering Flight in Flapping Insects and Hummingbirds: A Natural Real-Time and Stable Extremum Seeking Feedback System
Ahmed A. Elgohary, Sameh A. Eisa

TL;DR
This paper models hovering flight in insects and hummingbirds as a natural extremum seeking feedback system, enabling simple, stable, model-free, real-time stabilization based solely on wing oscillations and local altitude sensations.
Contribution
It introduces a novel characterization of biological hovering as an extremum seeking control system using natural wing oscillations and local feedback, bridging control theory and biological mechanisms.
Findings
Simulation results demonstrate robustness and effectiveness.
Applicable to various species including hawkmoth, bumblebee, and hummingbird.
Comparison with existing methods shows advantages in simplicity and stability.
Abstract
In this paper, we take an initial and novel step toward characterizing the physics of the hovering phenomenon in flapping insects and hummingbirds as a new class of extremum seeking (ES) feedback systems. By characterizing hovering flight in insects and hummingbirds as a natural hovering ES system, we achieve: (1) very simple, (2) stable, (3) model-free, and (4) real-time hovering. More importantly, our hovering ES characterization only needs the natural oscillations of the wing as the ES input. That is, unlike other control techniques in the literature, the natural hovering ES system only needs the natural flapping action built in the system, and feedback of local sensations (measurements) related to the altitude where the insect seeks to stabilize itself. Said ES characterization, can become an important initial step in starting a new line of research that may succeed in resolving the…
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Taxonomy
TopicsBiomimetic flight and propulsion mechanisms · Neural Networks and Reservoir Computing · Extremum Seeking Control Systems
