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Recently, Unmanned Aerial Vehicles (UAV) become a significant research area due to their multiple domains of applications such as: search and rescue operations, aerial surveying of crops, inspecting power lines and pipelines, delivering medical supplies to remote or otherwise inaccessible regions. However the UAV performances (such as autonomy, endurance, maximum flight altitude, maximum takeoff weight, maximum speed etc) depend mainly on its energy storage system (batteries, fuel cells, ultra capacitors). The more the drone’s complexity grows the more energy it consumes. In this paper we will discuss the different electrical architecture used in UAV and we’ll propose a hybrid solution that optimizes the energy consumption for multi-rotor.

Hybrid Electrical Architecture for Vertical Takeoff and Landing Unmmaned Aerial Vehicule