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Unité de recherche
INNOSUISSE
Numéro de projet
11116.1;6 PFNM-NM
Titre du projet
Vision-based autopilot for mini-drones (Feasibility Study)
Titre du projet anglais
Vision-based autopilot for mini-drones (Feasibility Study)

Textes relatifs à ce projet

 AllemandFrançaisItalienAnglais
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Résumé des résultats (Abstract)
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Textes saisis


CatégorieTexte
Description succincte
(Anglais)
Vision-based autopilot for mini-drones (Feasibility Study)
Description succincte
(Français)
Vision-based autopilot for mini-drones (Feasibility Study)
Résumé des résultats (Abstract)
(Anglais)
This project aims at implementing and testing a novel autopilot for mini-drones to enable them to fly autonomously in cluttered environments by actively avoiding collisions with obstacles such as buildings. The basis of this project is a patent-pending technology recently developed at EPFL, which takes inspiration from flying insects to devise an efficient vision-based control strategy that maps visual signals (optic flow) into commands in real-time. However, the current research prototype works only with natural obstacles. This feasibility study aims at assessing the use of a CSEM vision chip to improve signal quality and enable flight in man-made environments, which would significantly increase its commercial potential.
Résumé des résultats (Abstract)
(Français)
This project aims at implementing and testing a novel autopilot for mini-drones to enable them to fly autonomously in cluttered environments by actively avoiding collisions with obstacles such as buildings. The basis of this project is a patent-pending technology recently developed at EPFL, which takes inspiration from flying insects to devise an efficient vision-based control strategy that maps visual signals (optic flow) into commands in real-time. However, the current research prototype works only with natural obstacles. This feasibility study aims at assessing the use of a CSEM vision chip to improve signal quality and enable flight in man-made environments, which would significantly increase its commercial potential.