Electro-Active Polymers (EAP) have been described as artificial muscles due to their composition andmuscle-like dynamics [1]. Consequently they have attracted a lot of attention from the biomimetic robotics research community and heralded as a potential alternative to conventional electromagnetic, pneumatic or hydraulic actuation technologies [2]. However, in practice there are a number of technical barriers to overcome before they gain widespread acceptance as robotic actuators [3]. Here we focus on overcoming one of those limiting factors for a type of EAP referred to as Dielectric Electro-Active Polymers (DEAP). © 2014 Springer International Publishing
During the last decade and a half new polymers have emerged that respond to electrical stimulation w...
Tendon driven actuators are getting mature in electroactive polymer (EAP) researches. Research and d...
Actuators are responsible to the operative capability of manipulation systems and robots. In recent ...
Electro-Active Polymers (EAP) have been described as artificial muscles due to their composition and...
For many years, electroactive polymers (EAP) received relatively little attention due to the small n...
The emerging field of soft robotics offers the prospect of replacing existing hard actuator technolo...
Creating an artificial muscle has been one of the grand challenges of science and engineering. The i...
Human-like robots are increasingly becoming an engineering reality thanks to recent technology advan...
For many years, electroactive polymers (EAP) received relatively little attention due to the small n...
Advancements in software engineering have enabled the robotics industry to transition from the use o...
For many years, electroactive polymers (EAP) received relatively little attention due to the small n...
Evolution has resolved many of nature's challenges leading to working and lasting solutions that emp...
Electro-active polymers (EAPs) are emerging as feasible materials to mimic muscle-like actuation. Am...
Electroactive polymers (EAPs) consist of synthetic materials capable of changing dimensions and/or s...
Over the past couple of years, the field of soft robotics has seen tremendous expansion. As humans a...
During the last decade and a half new polymers have emerged that respond to electrical stimulation w...
Tendon driven actuators are getting mature in electroactive polymer (EAP) researches. Research and d...
Actuators are responsible to the operative capability of manipulation systems and robots. In recent ...
Electro-Active Polymers (EAP) have been described as artificial muscles due to their composition and...
For many years, electroactive polymers (EAP) received relatively little attention due to the small n...
The emerging field of soft robotics offers the prospect of replacing existing hard actuator technolo...
Creating an artificial muscle has been one of the grand challenges of science and engineering. The i...
Human-like robots are increasingly becoming an engineering reality thanks to recent technology advan...
For many years, electroactive polymers (EAP) received relatively little attention due to the small n...
Advancements in software engineering have enabled the robotics industry to transition from the use o...
For many years, electroactive polymers (EAP) received relatively little attention due to the small n...
Evolution has resolved many of nature's challenges leading to working and lasting solutions that emp...
Electro-active polymers (EAPs) are emerging as feasible materials to mimic muscle-like actuation. Am...
Electroactive polymers (EAPs) consist of synthetic materials capable of changing dimensions and/or s...
Over the past couple of years, the field of soft robotics has seen tremendous expansion. As humans a...
During the last decade and a half new polymers have emerged that respond to electrical stimulation w...
Tendon driven actuators are getting mature in electroactive polymer (EAP) researches. Research and d...
Actuators are responsible to the operative capability of manipulation systems and robots. In recent ...