Skip to content ↓


Medical devices

Download RSS feed: News Articles / In the Media

Displaying 16 - 30 of 45 news clips related to this topic.

Fast Company

Fast Company reporter Adele Peters writes that researchers from MIT and Brigham and Women’s Hospital have developed a new face mask that is made of silicon and designed to be reused and sterilized repeatedly. “We wanted to have a system that could be accessible and used by anyone globally,” says Prof. Giovanni Traverso

CBS Boston

Prof. Giovanni Traverso speaks with CBS Boston about a new silicon mask with N95 filters that can be reused and sterilized. “We recognize that not everybody has the sophisticated sterilization equipment but we also recognize that many folks around the world would have access to some kind of an oven or perhaps a solution of chlorine,” says Traverso.

United Press International (UPI)

UPI reporter Sommer Brokaw writes that researchers from MIT and Brigham and Women’s Hospital have created a new reusable silicon face mask with N95 filters. “The new masks have space for one or two N95 filters to be replaced after each use, and the rest of the rubber mask itself can be sterilized and reused many times,” writes Brokaw.


Researchers from MIT and Brigham and Women’s Hospital have designed a new reusable face mask outfitted with N95 filters that can be sterilized, reports WHDH.

Boston Globe

Researchers from MIT and Brigham and Women’s Hospital have developed a new silicon mask with N95 filters that can be sterilized and reused, reports Martin Finucane for The Boston Globe. “The mask is made of silicone rubber and includes one or two detachable N95 filters, but those filters require much less N95 material than a traditional N95 mask,” writes Finucane.


MIT researchers have created a “new laser ultrasound technique [that] utilizes an eye and skin safe laser system to image the inside of a person remotely,” reports Jennifer Kite-Powell for Forbes.


Prof. Pattie Maes writes for Wired about how wearable medical technology is becoming an increasingly mainstream component of therapeutic intervention. “While we need to be careful to make sure these designs safeguard privacy, give complete control to the user and avoid dependency whenever possible,” writes Maes, “there are countless possibilities for digital, wearable technologies to supplement and even replace traditional drugs and therapy.”


Edd Gent highlights MIT’s ingestible origami robot in this NBC Mach article on the ways origami is impacting science and engineering. “[T]he intricate folding patterns can be used to make complex mechanical systems,” like the MIT robot, which is “designed to unfurl and steer its way through the gut with help from external magnets,” writes Gent.

United Press International (UPI)

Researchers from MIT’s Little Devices Lab have developed Lego-like devices that can perform diagnostic tests, writes UPI reporter Allen Cone.  The devices could significantly reduce the cost of diagnostic tests and as they don't require refrigeration or special handling, “they could be particularly useful in the developing world.”


In this video, Prof. Canan Dagdeviren speaks with STAT about her group’s work developing a new, self-powered implantable device that can be used to relay information about the human body. “The physical patterns of human beings contain information in coded ways, and we would like to decode and understand what these patterns are telling us,” Dagdeviren explains.


Researchers from a number of universities, including MIT, have developed a new refillable, implantable device that can deliver drugs to the heart tissue to help treat a heart attack, reports Xinhua. "After a heart attack we could use this device to deliver therapy to prevent a patient from getting heart failure," explains Prof. Ellen Roche.

Fast Company

Fast Company reporter Adele Peters writes that MIT researchers have designed a kit that allows scientists to develop diagnostic tests quickly and cheaply. The kit, “uses modular blocks that can be connected in different patterns to replicate the function that would typically be built into a manufactured test for pregnancy, glucose, or an infection or other disease.”


MIT spinout Myomo has developed a robotic brace to aid in the reduction of neurological-related limb paralysis. “With the robotic brace, patients use their own muscle signals to control movements of a paretic or injured arm,” writes Jennifer Kite-Powell for Forbes. “[T]he brace amplifies their weak muscle signal to help move the limb.”

Empatica, a startup founded by Prof. Rosalind Picard, makes a wearable sensor that detects a person’s seizures, as well as certain physiological factors. Picard discussed the potential benefits of her work with Co.Design’s Katherine Schwab: “[W]hen you get personalized, long-term data from a watch or a phone, we can start to help an individual learn [their] patterns, not on average for some group you may be an outlier in.”

CBS Boston

CBS Boston spotlights how Portal Instruments, an MIT startup, is bringing a needle-free injector to the market, which could change the way people take medicine. The device, “fires a pressurized spray to penetrate the skin, instead of piercing the skin with traditional needles.”