Artificial Muscles: Dielectric Electroactive Polymer-Based Actuation
Richard W. Jones
Abstract
Richard W. Jones
Abstract
For decades both material scientists and engineers have sought to find an artificial equivalent of muscle to help in the development of new transducer technology. A specific class of electroactive polymers (EAP) known as `dielectric elastomers' have demonstrated most potential because they can undergo large deformation, have a high energy density and a relatively fast response. This contribution introduces dielectric elastomers and discusses the research challenges that need to be addressed before the full potential of the actuator technology can be realized.
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For decades both material scientists and engineers have sought to find an artificial equivalent of muscle to help in the development of new transducer technology. A specific class of electroactive polymers (EAP) known as `dielectric elastomers' have demonstrated most potential because they can undergo large deformation, have a high energy density and a relatively fast response. This contribution introduces dielectric elastomers and discusses the research challenges that need to be addressed before the full potential of the actuator technology can be realized.
Key concepts: Dielectric elastomers, Electroactive polymers, Artificial muscle, Dielectric, Actuator, Elastomer, Materials science, Transducer