When Being Soft Makes You Tough: A Collision-Resilient Quadcopter Inspired by Arthropods' Exoskeletons
Ricardo de Azambuja, Hassan Fouad, Yann Bouteiller, Charles Sol,, Giovanni Beltrame

TL;DR
This paper introduces CogniFly, a lightweight, collision-resilient quadcopter inspired by arthropods' exoskeletons, designed to withstand impacts, carry onboard AI, and operate in cluttered environments with minimal damage risk.
Contribution
It presents a simple, open-source, and easily manufactured exoskeleton design for quadcopters that enhances collision resilience without sacrificing payload capacity.
Findings
CogniFly survives impacts at speeds up to 7m/s.
It can fly for approximately 17 minutes without GPS or external tracking.
The design is cost-effective, easy to build, and customizable.
Abstract
Flying robots are usually rather delicate and require protective enclosures when facing the risk of collision, while high complexity and reduced payload are recurrent problems with collision-resilient flying robots. Inspired by arthropods' exoskeletons, we design a simple, open source, easily manufactured, semi-rigid structure with soft joints that can withstand high-velocity impacts. With an exoskeleton, the protective shell becomes part of the main robot structure, thereby minimizing its loss in payload capacity. Our design is simple to build and customize using cheap components (e.g. bamboo skewers) and consumer-grade 3D printers. The result is CogniFly, a sub-250g autonomous quadcopter that survives multiple collisions at speeds up to 7m/s. In addition to its collision-resiliency, CogniFly is easy to program using Python or Buzz, carries sensors that allow it to fly for approx.…
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