Journal Article10.1126/SCIROBOTICS.AAU6637
Perching and resting—A paradigm for UAV maneuvering with modularized landing gears
Kaiyu Hang,Ximin Lyu,Haoran Song,Johannes A. Stork,Johannes A. Stork,Aaron M. Dollar,Danica Kragic,Fu Zhang +7 more
- 13 Mar 2019
- Vol. 4, Iss: 28
TL;DR: A modularized and actuated landing gear framework that allows stabilizing the UAV on a wide range of different structures by perching and resting, and is effective in reducing power consumption, promotes increased pose stability, and preserves large vision ranges while perching or resting at heights.
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Abstract: Perching helps small unmanned aerial vehicles (UAVs) extend their time of operation by saving battery power. However, most strategies for UAV perching require complex maneuvering and rely on specific structures, such as rough walls for attaching or tree branches for grasping. Many strategies to perching neglect the UAV's mission such that saving battery power interrupts the mission. We suggest enabling UAVs with the capability of making and stabilizing contacts with the environment, which will allow the UAV to consume less energy while retaining its altitude, in addition to the perching capability that has been proposed before. This new capability is termed "resting." For this, we propose a modularized and actuated landing gear framework that allows stabilizing the UAV on a wide range of different structures by perching and resting. Modularization allows our framework to adapt to specific structures for resting through rapid prototyping with additive manufacturing. Actuation allows switching between different modes of perching and resting during flight and additionally enables perching by grasping. Our results show that this framework can be used to perform UAV perching and resting on a set of common structures, such as street lights and edges or corners of buildings. We show that the design is effective in reducing power consumption, promotes increased pose stability, and preserves large vision ranges while perching or resting at heights. In addition, we discuss the potential applications facilitated by our design, as well as the potential issues to be addressed for deployment in practice.
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Citations
Electrically active smart adhesive for a perching-and-takeoff robot
Haoran Liu,Hongmiao Tian,Duorui Wang,Tengfei Yuan,Jinyu Zhang,Guifang Liu,Xiangming Li,Xiaoliang Chen,Chunhui Wang,Shengqiang Cai,Jinyou Shao +10 more
TL;DR: Electrically active smart adhesives enable a perching-and-takeoff robot to dynamically perch on moving targets with high adhesion, impact resistance, and sensor capabilities.
13
Practical and Accurate Generation of Energy-Optimal Trajectories for a Planar Quadrotor
Fabio Morbidi,Dominik Pisarski +1 more
- 30 May 2021
TL;DR: In this paper, the authors address the problem of generating energy-optimal trajectories for a planar quadrotor by considering an accurate electrical model for the brushless DC motors and rest-to-rest maneuvers between two predefined boundary states.
Perception-Aware Perching on Powerlines With Multirotors
J.L. Paneque,J.R. Martinez-de Dios,Anibal Ollero,Drew Hanover,Sihao Sun,Angel Romero,Davide Scaramuzza +6 more
TL;DR: In this article , the Primal-Dual Interior Point (PDIP) method is used to solve a nonlinear programming problem to generate trajectory trajectories for a multi-rotor powerline inspection.
12
Design and Optimization of a Magnetic Catcher for UAV Landing on Disturbed Aquatic Surface Platforms
Chongfeng Liu,Zixing Jiang,Ruoyu Xu,Xiaoqiang Ji,Lianxin Zhang,Huihuan Qian +5 more
- 23 May 2022
TL;DR: A new capture system for UAV precision landing in a disturbed environment that takes into account the stability during landing process and retains the high accessibility of the UAV.
12
Research on Landing Stability of Four-Legged Adaptive Landing Gear for Multirotor UAVs
TL;DR: In this article , a new four-legged landing gear of multi-rotor UAVs with a passive cushioning structure is designed, aiming at the landing stability requirement of rotorcraft UAV in complex terrains.
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