DocumentCode
1724555
Title
Electrostatic artificial muscle: compact, high-power linear actuators with multiple-layer structures
Author
Niino, Toshiki ; Egawa, Saku ; Kimura, Hidemi ; Higuchi, Toshiro
Author_Institution
Dept. of Precision Machinery Eng., Tokyo Univ., Japan
fYear
1994
fDate
6/16/1905 12:00:00 AM
Firstpage
130
Lastpage
135
Abstract
Two types of compact, high-power, electrostatically driven actuators with multiple-layer structure, electrostatic artificial muscles, are developed. The actuators have 40 or 50 pairs of sheets interleaved together and enclosed in ready-to-use packages filled with a dielectric liquid. Sliding forces are generated on the surface of each film and are combined into a net force at the bundled edges of the sheets. The first type, a pulse-drive induction artificial muscle, which utilizes induced charges on highly resistive films, generated 8 N propulsive force and 0.5 W mechanical power with 110 g its own mass, The second type, ac-drive variable capacitance artificial muscle that weighs 3.6 kg produced huge output, 310 N, 19 W. These actuators will be used in wide range of application fields scaling from micro manipulators to massive mobile robots
Keywords
electrostatic devices; manipulators; microactuators; mobile robots; muscle; 0.5 W; 19 W; ac-drive variable capacitance artificial muscle; bundled edges; dielectric liquid; electrostatic artificial muscle; electrostatically driven actuators; high-power linear actuators; induced charges; mechanical power; micromanipulators; mobile robots; multiple-layer structures; propulsive force; pulse-drive induction artificial muscle; sliding forces; Capacitance; Dielectric liquids; Electrostatic actuators; Induction generators; Manipulators; Mobile robots; Muscles; Packaging; Power generation; Pulse generation;
fLanguage
English
Publisher
ieee
Conference_Titel
Micro Electro Mechanical Systems, 1994, MEMS '94, Proceedings, IEEE Workshop on
Conference_Location
Oiso
Print_ISBN
0-7803-1833-1
Type
conf
DOI
10.1109/MEMSYS.1994.555611
Filename
555611
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