With help from recent gifts, the Stanford Wearable Electronics Initiative eWEAR-X is supercharging its efforts to transform researchers inspiration into reality by augmenting the Ideation and Prototyping Lab and providing seed funding for members of the university community.
With help from recent gifts, the Stanford Wearable Electronics Initiative eWEAR-X is supercharging its efforts to transform researchers inspiration into reality by augmenting the Ideation and Prototyping Lab and providing seed funding for members of the university community.
Biocompatibility is vital to medical device safety. It ensures implants and other devices can be used in and on the body with minimal adverse reactions. Medical devices must be highly biocompatible, as they often contact the body's internal tissues and fluids.
A new glove with more than three dozen actuators across all five fingers and the palm, developed by Cornell researchers, aims to reduce swelling for people suffering from edema.
AI-powered artificial muscles made from pliable materials are reshaping recovery, from stroke rehabilitation to prosthetic design. These machines help people regain motion, strength, and confidence.
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.
AI-powered artificial muscles made from pliable materials are reshaping recovery, from stroke rehabilitation to prosthetic design. These machines help people regain motion, strength, and confidence.
MIT CSAIL researchers enhance robotic precision with sophisticated tactile sensors in the palm and agile fingers, setting the stage for improvements in human-robot interaction and prosthetic technology.
With help from recent gifts, the Stanford Wearable Electronics Initiative eWEAR-X is supercharging its efforts to transform researchers inspiration into reality by augmenting the Ideation and Prototyping Lab and providing seed funding for members of the university community.
Biocompatibility is vital to medical device safety. It ensures implants and other devices can be used in and on the body with minimal adverse reactions. Medical devices must be highly biocompatible, as they often contact the body's internal tissues and fluids.
Ambiq’s ultra-low-power edge AI technology is pushing health monitoring by enabling always-on, intelligent wearable devices that track vital signs in real time without relying on cloud connectivity.
Healthcare is facing a critical workforce shortage, with AI emerging as a key tool to support clinicians by improving diagnostics, treatment planning, and efficiency without replacing human expertise.
Stanford bioengineer Mark Skylar-Scott on his “science fiction” quest to 3D print human hearts and other organs on demand, using cells from a patient’s own body.
In the modern era of sport, results are often decided by ultra-fine margins like milliseconds or millimeters. Yet even precise metrics such as speed and distance are still quite rudimentary in nature.
Let’s explore how CNC machining accelerates medical device development by delivering exceptional precision, optimizing production efficiency, and ensuring regulatory compliance.
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.