A Single-Actuated Swimming Robot: Design, Modelling, and Experiments

This paper describes and investigates a simple swimming mechanism, which comprises two concentric bodies and two passive flaps. The mechanism propels itself forward by oscillating its inner body in a symmetric fashion using a single actuator. Using a few assumptions, we develop a simplified model to...

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Published inJournal of intelligent & robotic systems Vol. 94; no. 2; pp. 471 - 489
Main Authors Refael, Gilad, Degani, Amir
Format Journal Article
LanguageEnglish
Published Dordrecht Springer Netherlands 01.05.2019
Springer
Springer Nature B.V
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ISSN0921-0296
1573-0409
DOI10.1007/s10846-018-0776-x

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Abstract This paper describes and investigates a simple swimming mechanism, which comprises two concentric bodies and two passive flaps. The mechanism propels itself forward by oscillating its inner body in a symmetric fashion using a single actuator. Using a few assumptions, we develop a simplified model to investigate the dynamics of the robot and to simulate its motion. Numerical simulations show the effect of design parameters and control inputs on the locomotion performance. Next, we show how changing the control input from symmetric to asymmetric oscillations leads to a turning motion, still using only a single motor. By modulating the asymmetry in the oscillatory input, the turning radius changes. We conclude with a validation of our model with a proof-of-concept prototype showing similar swimming motions.
AbstractList This paper describes and investigates a simple swimming mechanism, which comprises two concentric bodies and two passive flaps. The mechanism propels itself forward by oscillating its inner body in a symmetric fashion using a single actuator. Using a few assumptions, we develop a simplified model to investigate the dynamics of the robot and to simulate its motion. Numerical simulations show the effect of design parameters and control inputs on the locomotion performance. Next, we show how changing the control input from symmetric to asymmetric oscillations leads to a turning motion, still using only a single motor. By modulating the asymmetry in the oscillatory input, the turning radius changes. We conclude with a validation of our model with a proof-of-concept prototype showing similar swimming motions.
This paper describes and investigates a simple swimming mechanism, which h comprises two concentric bodies and two passive flaps. The mechanism propels itself forward by oscillating its inner body in a symmetric fashion using a single actuator. Using a few assumptions, we develop a simplified model to investigate the dynamics of the robot and to simulate its motion. Numerical simulations show the effect of design parameters and control inputs on the locomotion performance. Next, we show how changing the control input from symmetric to asymmetric oscillations leads to a turning motion, still using only a single motor. By modulating the asymmetry in the oscillatory input, the turning radius changes. We conclude with a validation of our model with a proof-of-concept prototype showing similar swimming motions. Keywords Underactuated robots * Dynamics * Marine robotics Mathematics Subject Classification 2010 70B15
Audience Academic
Author Degani, Amir
Refael, Gilad
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CitedBy_id crossref_primary_10_1088_1748_3190_ab745e
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crossref_primary_10_3390_act13060218
crossref_primary_10_1115_1_4051240
crossref_primary_10_3390_biomimetics7040145
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References_xml – reference: KimH-JSongS-HAhnS-HA turtle-like swimming robot using a smart soft composite (SSC) structureSmart Mater. Struct.20132211400710.1088/0964-1726/22/1/014007
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Snippet This paper describes and investigates a simple swimming mechanism, which comprises two concentric bodies and two passive flaps. The mechanism propels itself...
This paper describes and investigates a simple swimming mechanism, which h comprises two concentric bodies and two passive flaps. The mechanism propels itself...
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StartPage 471
SubjectTerms Actuators
Artificial Intelligence
Asymmetry
Composite materials
Computer simulation
Control
Design parameters
Electrical Engineering
Engineering
Experiments
Flaps
Locomotion
Mathematical models
Mechanical Engineering
Mechatronics
Numerical analysis
Ordinary differential equations
Reynolds number
Robot dynamics
Robot learning
Robotics
Robots
Sensors
Swimming
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Title A Single-Actuated Swimming Robot: Design, Modelling, and Experiments
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