2000 · 157 citations · 30 references
EngineeringMaterials EngineeringMaterials ScienceActuatorsPolymer MaterialsRoboticsActuator MaterialsSoft ActuatorsArtificial Muscle ActuatorsArtificial Muscle MaterialsArtificial MusclesElectroactive Polymer ActuationElectroactive Polymer ActuatorsElectroactive PolymersLarge-strain Electroactive PolymersPolymer-based Artificial Muscles
Electroactive polymers, once overlooked due to limited materials and actuation, have recently attracted attention because of large displacement responses and muscle‑like resilience, enabling novel robotic components and miniature devices. This paper reviews the current capabilities, potentials, and challenges of state‑of‑the‑art electroactive polymers. The authors organized international conferences, newsletters, and a website to foster collaboration and review the field of electroactive polymers. The conference, the largest ever on electroactive polymers, marked a milestone by spotlighting the emerging materials and their potential.
For many years, electroactive polymers (EAP) received relatively little attention due to the small number of available materials and their limited actuation capability. The recent emergence of EAP materials with large displacement response changed the paradigm of these materials and their potential capability. The main attractive characteristic of EAP is their operational similarity to biological muscles, particularly their resilience and ability to induce large actuation strains. Unique robotic components and miniature devices are being explored, where EAP serve as actuators to enable new capabilities. In recognition of the need for international cooperation among the developers, users and potential sponsors, an SPIE Conference was organized for the first time on March 1–2, 1999, in Newport Beach, California. The conference was the largest ever on EAP, and it marked an important milestone, turning the spotlight onto these emerging materials and their potential. Following this success, an MRS conference was initiated to address the fundamental issues related to the material science of EAP. The WW-EAP newsletter was initiated to bring the worldwide EAP community even closer. A homepage was also created to link worldwide EAP research and development facilities websites. In this paper, the current capabilities and potentials as well as the challenges of state-of-the art EAP will be reviewed.
30
A polymer gel with electrically driven motility
Yoshihito Osada, Hidenori Okuzaki, Hirofumi Hori · Nature · 1992 · 1.3K citations
Natural Sciences, Materials Engineering, Materials Science +12
Collapse of Gels in an Electric Field
Toyoichi Tanaka, Izumi Nishio, Shao-Tang Sun et al. · Science · 1982 · 1.3K citations