Title :
Hybrid aerial and scansorial robotics
Author :
Desbiens, Alexis Lussier ; Asbeck, Alan ; Cutkosky, Mark
Author_Institution :
Mech. Eng. & Electr. Eng., Stanford Univ., Stanford, CA, USA
Abstract :
We present an approach that builds upon previous developments in unmanned air vehicles and climbing robots and seeks to emulate the capabilities of bats, insects and certain birds that combine powered flight with the ability to land and perch on sloped and vertical surfaces. As it approaches a wall, the plane executes an intentional pitch-up maneuver to shed speed and present its feet for landing. On contact, a nonlinear suspension dissipates the remaining kinetic energy and directs interaction forces toward the feet to engage small asperities on surfaces such as brick or concrete. The focus of the work in this paper is on the controller used for sensing a wall and executing vertical landing and take-off procedures and on the mechanisms developed for spine engagement and disengagement.
Keywords :
aerospace control; mobile robots; nonlinear control systems; remotely operated vehicles; climbing robots; hybrid aerial robotics; hybrid scansorial robotics; kinetic energy; nonlinear suspension; pitch up maneuver; sloped surfaces; spine disengagement; spine engagement; unmanned air vehicles; vertical surfaces; Aerodynamics; Airplanes; Attitude control; Climbing robots; Control systems; Kinetic energy; Motion control; Robotics and automation; Unmanned aerial vehicles; Vehicle dynamics;
Conference_Titel :
Robotics and Automation (ICRA), 2010 IEEE International Conference on
Conference_Location :
Anchorage, AK
Print_ISBN :
978-1-4244-5038-1
Electronic_ISBN :
1050-4729
DOI :
10.1109/ROBOT.2010.5509660