Rapid Inertial Reorientation of an Aerial Insect-sized Robot Using a Piezo-actuated Tail

We present the design, fabrication, and feedforward control of a insect-sized (142 mg) aerial robot that is equipped with a bio-inspired inertial tail. A tail allows the robot to perform rapid inertial reorientation as well as to shift weight to modulate aerodynamic torques on its body. Here we pres...

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Published in2019 International Conference on Robotics and Automation (ICRA) pp. 4154 - 4160
Main Authors Singh, Avinash, Libby, Thomas, Fuller, Sawyer B
Format Conference Proceeding
LanguageEnglish
Published IEEE 01.05.2019
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Abstract We present the design, fabrication, and feedforward control of a insect-sized (142 mg) aerial robot that is equipped with a bio-inspired inertial tail. A tail allows the robot to perform rapid inertial reorientation as well as to shift weight to modulate aerodynamic torques on its body. Here we present the first analysis of inertial reorientation using a piezo actuator, departing from previous work to date that has focused exclusively on actuation by DC electric motor. The primary difference is that unlike a geared motor system, the piezo-tail system operates as a resonant system, exhibiting slowly-decaying oscillations. We present a dynamic model of piezo-driven inertial reorientation, along with an open-loop feedforward controller that reduces excitation of the resonant mode. We validate our approach on a tethered testbed as well as a flight-capable prototype. Our results indicate that incorporating a tail can allow for more rapid dynamic maneuvers and could stabilize the robot during flight.
AbstractList We present the design, fabrication, and feedforward control of a insect-sized (142 mg) aerial robot that is equipped with a bio-inspired inertial tail. A tail allows the robot to perform rapid inertial reorientation as well as to shift weight to modulate aerodynamic torques on its body. Here we present the first analysis of inertial reorientation using a piezo actuator, departing from previous work to date that has focused exclusively on actuation by DC electric motor. The primary difference is that unlike a geared motor system, the piezo-tail system operates as a resonant system, exhibiting slowly-decaying oscillations. We present a dynamic model of piezo-driven inertial reorientation, along with an open-loop feedforward controller that reduces excitation of the resonant mode. We validate our approach on a tethered testbed as well as a flight-capable prototype. Our results indicate that incorporating a tail can allow for more rapid dynamic maneuvers and could stabilize the robot during flight.
Author Libby, Thomas
Singh, Avinash
Fuller, Sawyer B
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  organization: Department of Mechanical Engineering, University of Washington, Seattle, WA, 98105, USA
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Snippet We present the design, fabrication, and feedforward control of a insect-sized (142 mg) aerial robot that is equipped with a bio-inspired inertial tail. A tail...
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StartPage 4154
SubjectTerms Actuators
Aerodynamics
Analytical models
Fabrication
Prototypes
Robots
Torque
Title Rapid Inertial Reorientation of an Aerial Insect-sized Robot Using a Piezo-actuated Tail
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