The applications of 3D printing span many industries, from aircraft fuel nozzles to dental aligners. Here we look at some of the most important uses of the technology.
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.
In this episode, we cover Harvard's soft wearable robot that learns a patient's intent and provides just-enough support, helping stroke and ALS patients regain independence in everyday tasks.
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.
Article #4 of Spotlight on Innovations in Edge Computing and Machine Learning: Discover the integration of TinyML and wearable tech as we delve into a project that detects falls in real-time, potentially saving lives in our aging population.
By bringing computing power closer to the data source and reducing latency, edge computing enables real-time monitoring and analysis of critical data, which is already revolutionizing various applications, including smart cities and buildings maintenance applications.
Status and evolution of intelligent skin patches, enabled by flexible hybrid electronics, going from a single wired sensors to complex wireless multi-function capability. Learn about trends, archirectures and challenges from a manufacturer's point of view to understand how to design for production.
In this episode, we discuss the breakthrough research by MIT engineers to effectively deliver drugs through the skin allowing for a lower dosage of active ingredients needed per use and a potentially pill-free implementation of commonly used drugs!
This blog comprises a collection of articles on innovation written by Hubert Martens, the CEO and founder of Salvia BioElectronics. Originally shared on LinkedIn, Martens intended to spark a conversation about innovation and introduce the innovation model he and his team developed over their careers.
This article explores how to apply "KISS" principles to medical device design, providing valuable insights for staying ahead in this competitive industry.
In this episode, we talk about a combined effort between ETH Zurich & the Swiss Federal Lab for Material Science (EMPA) to create “smart” internal bandages for safely patching patients post stomach/intestinal surgery while providing insight to the medical staff about the status of the patch to prevent leakages which can be fatal.
Relatively new to High Tech Campus, STENTiT is a medtech startup aiming to revolutionize artery intervention. Born out of technology from Eindhoven University of Technology (TU/e) , the company found a natural home at High Tech Campus Eindhoven to grow its business and benefit from the Brainport community.
Healthcare is undergoing a transformative shift with the rise of stick-to-skin wearable monitoring devices. These data-collecting marvels, such as continuous glucose or cardiac monitoring devices, offer convenience & real-time insights.This article explores capabilities, applications & market trends
This guide will focus on the key stages of the medical device development process, touching on the development timeline for different medical products. We will also discuss the various challenges and opportunities for product development in the medical device industry.
New technologies in life sciences and health are transforming healthcare from a labor-intensive industry to a data-driven, innovation-intensive industry.
A washable wearable biometric device using printed electronics technology provides real-time data for telemedicine. Integrated into a sleeve, the sensors monitor muscle activity. The data, transmitted to an online platform, facilitates remote health monitoring.