These Robotic Muscles Behave Just Like Human Muscles
References: www-robot.mes.titech.ac.jp & gizmodo
Advanced robotics research has led to bots that are stronger and faster than humans, but their pneumatic power sources hardly look human-like -- now, with new 'multifilament' technology, the Suzumori Endo Laboratory at the Tokyo Institute of Technology has successfully created functional robotic muscles that look and act like biological ones.
Just like the sinews that make up human muscles, the Suzumori Endo Lab's robotic muscles use bundles of multifilaments that meet at "tendons" along a biologically accurate skeleton's joints. These multifilaments contract and relax when exposed to an electrical current in the same way that human muscles flex and release in response to neurological impulses.
The lab's technology still has a long way to go, however. At present, the robotic muscles are not strong enough to support a skeleton without an "auxiliary walking instrument", and their movement is far slower and more deliberate than actual human movement. So the robot apocalypse can be delayed, at least for the time being.
Just like the sinews that make up human muscles, the Suzumori Endo Lab's robotic muscles use bundles of multifilaments that meet at "tendons" along a biologically accurate skeleton's joints. These multifilaments contract and relax when exposed to an electrical current in the same way that human muscles flex and release in response to neurological impulses.
The lab's technology still has a long way to go, however. At present, the robotic muscles are not strong enough to support a skeleton without an "auxiliary walking instrument", and their movement is far slower and more deliberate than actual human movement. So the robot apocalypse can be delayed, at least for the time being.
Trend Themes
1. Biologically Accurate Robotic Muscles - Developing robotic muscles that replicate human muscles opens up opportunities for more lifelike and versatile robotics applications.
2. Multifilament Technology - The use of multifilaments in robotic muscles enables more realistic movement and closer alignment with biological structures.
3. Enhancing Robotic Strength and Speed - Improving the strength and speed of robotic muscles will lead to advancements in various industries, from manufacturing to healthcare.
Industry Implications
1. Robotics Industry - The development of biologically accurate robotic muscles presents an opportunity for disruptive innovation in robotics manufacturing and applications.
2. Healthcare Industry - Applying biologically accurate robotic muscles in medical devices and prosthetics can revolutionize the field, allowing for more realistic and functional solutions.
3. Manufacturing Industry - Incorporating biologically accurate robotic muscles in industrial automation can enhance productivity, precision, and safety in manufacturing processes.
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