Researchers at ETH Zurich have developed an innovative hand exoskeleton that helps persons after stroke re-learn how to grasp. Its accordion-like structure makes it light, robust and easy to integrate into everyday life.
Able to undergo repeated compressions without losing their shape, woven materials could form robots, exoskeletons, car parts, architectural components and more.
When we're healthy, activities like walking, sitting down, speaking and remembering things can be done with ease. But if an accident or illness impairs our physical or cognitive capabilities, such everyday tasks can become difficult or even impossible.
In this episode, we explore a groundbreaking system developed by researchers at the Technical University of Munich that aids stroke patients in regaining arm and hand mobility.
The human determinants of research are key for making progress, as championed by amputee Massimo Munzi who is helping improve prosthetics, as well as EPFL's neuroprosthetic researcher Jonathan Muheim.
Director of Installation and Maintenance for VodafoneZiggo, Nicole Hoebink lives “happily” in Den Bosch with her husband and her 14-year-old son. Walking their dogs is one of her favorite activities to relax and clear up her mind. Nicole has a background in economics.
Working closely with users and therapists, EPFL spin-off Emovo Care has developed a light and easy-to-attach hand exoskeleton for people unable to grasp objects following a stroke or accident. The device has been successfully tested in several hospitals and rehabilitation centers.
In this episode, we talk about how exoskeleton technology is being leveraged to treat parkinsons and how a new approach for more efficient, personalized exoskeletons could be the catalyst for wide scale adaptation.
A system developed by Grégoire Courtine and Jocelyne Bloch now enables patients with a complete spinal cord injury to stand, walk and even perform recreational activities like swimming, cycling and canoeing.
In this episode, we talk about a system developed by MIT researchers to optimize new material development and LifeNabled - a non-profit organization - that leverages 3D printing technology and generative design to develop cost-effective, bespoke prosthetics.
LifeNabled volunteers and designers created a fully digital workflow to produce custom 3D printed prosthetic sockets with flexible inner liners. Now, 35 patients in the jungle of Guatemala are walking on the most advanced prosthetic and orthotic devices in the world.
Alexey Ledyukov, a student at ITMO’s Faculty of Control Systems and Robotics, has designed an exoskeleton that will be able to help lift up to 80 kilograms easily. At the same time, the suit itself doesn’t weigh much: you can move and even run in it freely.
In this episode, we talk about a new machine learning model developed by NIST to predict flashover in burning buildings and protect firefighters, NASA’s new ultrasonic additive manufacturing approach, and an affordable, high performance athletic prosthetic.
By combining cost-effective 3D printing with affordable electronics and wireless technology, new accessibility solutions empower children with limb differences.
With the reusable workflows in nTop Platform and FDM 3D printing, industrial designers are able to rapidly iterate and prototype the design of functional parts.