robot

robotheader

BAYER MaterialScience is supplying high-quality material for an innovative exoskeleton designed to support the human motor function and strength. Robot Suit® HAL®, developed and manufactured by the Japanese company Cyberdyne, is one example of the pioneering developments being made in the increasingly important field of healthcare. The gleaming white plastic housing of HAL (Hybrid Assistive Limb) is based on a thermoplastic polymer blend from the Bayblend® product class. “Our material combines the requisite impact resistance with a stylish design,” explained Dr. Lorenz Kramer, who is responsible for the Robotics section at Bayer Material-Science.“Our partnership with Cyberdyne is enabling us to step up our global activities on the future-oriented robotics market.” In Japan, HAL for lower limbs is already available as a leasing model for use in welfare facilities. In this application, the exoskeleton helps the wearer with dayto-day activities such as walking, standing up and climbing stairs.

In view of Japan’s aging population, rapid market growth is forecast for these kinds of service robots in the years ahead.

Experts also see considerable potential throughout the western world. “Bayblend improves the functionality of HAL considerably,” commented Professor Yoshiyuki Sankai, CEO and founder of Cyberdyne Inc.

robotpoly

He believes polymers could have numerous other applications in the manufacture of robots as a replacement for the metal components that are in widespread use today but which are hampered by too many limitations.

Use in factories or disaster control
It is believed that the exoskeleton would also be ideal for applications outside the healthcare sector. As HAL can produce almost ten times the power generated by the human body it could be used to ease tough physical tasks in factories or on building sites. It is also conceivable that the exoskeleton could provide support for disaster control or sporting activities.
Robot Suit HAL is strapped on to human limbs and controlled via a computer that receives bioelectric signals from electrodes attached to the user’s skin. When the person attempts to move, nerve signals are sent from the brain to the muscles via motor neurons, moving the muscoskeletal system as a consequence. Based on the signals obtained, the power unit moves the joints in synchronization with the wearer’s movements.

robot

 

- SA Plastics, Composites & Rubber magazine