Stories
Briefs: Wearables
R&D: Medical
Briefs: Materials
It may look like a bizarre bike helmet, or a piece of equipment found in Doc Brown’s lab in Back to the Future, yet this gadget made of plastic and copper wire is a...
R&D: Sensors/Data Acquisition
Researchers have developed three-in-one hybrid material smart skin for the next generation of artificial, electronic skin using a novel process. With 2,000 individual sensors per square millimeter,...
R&D: Medical
Gadolinium-doped cerium oxide could be a promising alternative to certain piezoelectric materials. It is lead-free, which means that it could be employed in biocompatible medical applications. Further...
R&D: Medical
A metasurface lens has been created that uses a piezoelectric thin film to change focal length when a small voltage is applied. Because it is extremely compact and lightweight, the new lens could be useful for...
Global Innovations: Materials
Engineers at EPFL and ETH have developed a variable stiffness catheter made of nontoxic threads that can transition between soft and rigid states during surgery. It...
Briefs: Mechanical & Fluid Systems
R&D: Medical
R&D: Manufacturing & Prototyping
R&D: Energy
R&D: Medical
R&D: Mechanical & Fluid Systems
Briefs: Sensors/Data Acquisition
Global Innovations: Sensors/Data Acquisition
Technology Leaders: Materials
R&D: Sensors/Data Acquisition
R&D: Wearables
R&D: Medical
R&D: Wearables
R&D: Medical
Global Innovations: Medical
Australia
Researchers from the University of Sydney have collaborated with Columbia University and the University of Erlangen-Nuremberg to...
R&D: Medical
Features: Design
R&D: Materials
Researchers have compared two copper-based SMAs of the same composition but fabricated differently. After annealing, the samples were cooled at different rates. Then both samples were heated inside...
Briefs: Materials
The piezoelectric materials that inhabit everything from our cell phones to musical greeting cards may be getting an upgrade thanks to work discussed in the journal Nature Materials....
R&D: Materials
Researchers have shown a way to use graphene oxide (GO) to add some backbone to hydrogel materials made from alginate, a natural material derived from seaweed that is currently...
Technology Leaders: Electronics & Computers
Medical devices require sensors that are miniaturized, highly reliable and integrated, cost-effective, hermetic, and biocompatible. By combining thin film technology...
R&D: Robotics, Automation & Control
An electrically conductive hydrogel that takes stretchability, self-healing, and strain sensitivity to new limits outperforms previously reported hydrogels and introduces new functionalities. Smart...
Top Stories
INSIDER: Medical
Ultrathin Nanotech Promises to Help Tackle Antibiotic Resistance
Quiz: Medical
Medical Technology on the PGA Tour
INSIDER: Medical
Breaking Barriers in Drug Delivery with Better Lipid Nanoparticles
Features: Materials
Hydrogels as a Drug-Delivery Medium
Features: Medical
Overcoming Blockers to Digitizing Manufacturing Operations
INSIDER: Medical
Ask the Expert
Dan Sanchez on How to Improve Extruded Components

Improving extruded components requires careful attention to a number of factors, including dimensional tolerance, material selection, and processing. Trelleborg’s Dan Sanchez provides detailed insights into each of these considerations to help you advance your device innovations while reducing costs and speeding time to market.
Webcasts
Webinars: Medical

Scan-Based and Project Design for Medical
Upcoming Webinars: Manufacturing & Prototyping

Precision, Control and Repeatability: Harnessing the Power of UV...
Podcasts: Manufacturing & Prototyping

Here's an Idea: Medtech’s New Normal
Podcasts: Materials

Here's an Idea: A Plant-Based Gel That Saves Lives
Webinars: Medical

Adaptable Healthcare Solutions Designed for Safety and Security
Podcasts: Medical

Inside Story
Rapid Precision Prototyping Program Speeds Medtech Product Development
Rapid prototyping technologies play an important role in supporting new product development (NPD) by companies that are working to bring novel and innovative products to market. But in advanced industries where products often make use of multiple technologies, and where meeting a part’s exacting tolerances is essential, speed without precision is rarely enough. In such advanced manufacturing—including the medical device and surgical robotics industries — the ability to produce high-precision prototypes early in the development cycle can be critical for meeting design expectations and bringing finished products to market efficiently.