Optimal Inverted Landing in a Small Aerial Robot with Varied Approach Velocities and Landing Gear Designs
Bryan Habas, Bader AlAttar, Brian Davis, Jack W. Langelaan, Bo Cheng

TL;DR
This study investigates optimal inverted landing maneuvers for small aerial robots inspired by flies, analyzing how approach velocities and gear designs affect landing success through simulation and limited experiments.
Contribution
It introduces a physics-based simulation framework to optimize inverted landing strategies based on initial approach velocities and gear designs, without external positioning.
Findings
Identified a 3D policy region for inverted landings.
Analyzed effects of gear designs on landing performance.
Validated some results through experimental testing.
Abstract
Inverted landing is a challenging feat to perform in aerial robots, especially without external positioning. However, it is routinely performed by biological fliers such as bees, flies, and bats. Our previous observations of landing behaviors in flies suggest an open-loop causal relationship between their putative visual cues and the kinematics of the aerial maneuvers executed. For example, the degree of rotational maneuver (the amount of body inversion prior to touchdown) and the amount of leg-assisted body swing both depend on the flies' initial body states while approaching the ceiling. In this work, inspired by the inverted landing behavior of flies, we used a physics-based simulation with experimental validation to systematically investigate how optimized inverted landing maneuvers depend on the initial approach velocities with varied magnitude and direction. This was done by…
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Taxonomy
TopicsBiomimetic flight and propulsion mechanisms · Robotic Locomotion and Control · Guidance and Control Systems
