Researchers at the University of California, Davis have developed a half-virtual-half-physical microactuator that utilizes a combination of computational models and microelectromechanical systems for use in medical devices and mechanical systems.
Actuators convert energy into motion in a wide range of systems. The use of actuators to mimic biological systems is desirable but currently available actuators are large, constrained in movement, and are subject to high failure. The potential miniaturization and mass production of actuators can help solve recurring problems in medical devices (such as artificial muscle) and commonplace mechanical systems.
Researchers at the University of California, Davis have developed a versatile half-virtual-half-physical microactuator for use in medical and mechanical systems. This actuator consists of an array of microactuators. Each microactuator is small (100μm -a few mm) and can independently contract or relax via embedded computing units in response to locally generated, real-time, virtual signals (such as those from a computational modeled signals). The actuators themselves are powered by an external power supply and are made of durable and flexible materials for use in severe environments. The actuators can be connected to work in parallel by an elastic body, allowing the system to be scaled for use in a wide array of applications.
|Patent Cooperation Treaty||Reference for National Filings||2019071018||04/11/2019||2017-266|
artificial muscle, artificial cell, actuator, microactuator, biological systems, computational models, medical engineering, robotics, mechanical engineering, digital signal