MIT researchers have developed a new technique to stop the spread of cancer cells through the body by delivering microRNAs to the site of the primary tumor, reports Hallie Smith for Boston Magazine. The technique “may correct gene disruptions that put a patient at risk of metastatic cancer,” Smith explains.
STAT reporter Sharon Begley writes that MIT will share the One Brave Idea research award, which is focused on supporting research aimed at fighting heart disease. The award recipients plan “to hunt down so-far unrecognized signals marking the transition from a healthy heart to one on the road to disease.”
In this video, CNN spotlights how researchers from MIT’s Senseable City Lab have developed a robot, named Luigi, to collect bacteria from the sewers in an effort to better understand public health. "Sewers represent a unique opportunity where health data from everybody in a community is pooled together,” explains Prof. Eric Alm.
Dr. Mallika Marshall reports for CBS Boston that MIT researchers have created a robot that helps maternity nurses make scheduling and placement decisions. “What we found was that the suggestions of the robot were accepted 90 percent of the time, which was very exciting for us,” explains Prof. Julie Shah.
Eric Boodman writes for STAT that MIT researchers have developed a technique to produce biopharmaceuticals in remote locations. “Instead of making the drugs and then trying to keep them refrigerated over thousands of miles,” Boodman writes, the researchers, “want to give people the ingredients. These components don’t require refrigeration, and the instructions are as simple as they come: Just add water.”
In a Huffington Post video, Prof. Daniela Rus explains that the ingestible origami robot her team developed could enable incisionless surgery. “What we have developed so far is a proof of concept that shows that you could have tetherless machines that can do active and important functions inside the body,” she explains.
Prof. Robert Langer talks to Jessica Harris from NPR about his research on tissue engineering and drug delivery, the commercialization of his discoveries, and the many companies he has started. Langer says he started his lab based off his desire to improve people’s lives by conducting research “at the interface of chemical engineering and medicine.”
MIT researchers have developed a new system for protecting patient privacy in genomic databases, reports Anna Nowogrodzki for Nature. The system “masks the donor's identity by adding a small amount of noise, or random variation, to the results it returns on a user’s query,” Nowogrodzki explains.
Gabrielle DiBenedetto writes for Boston Magazine that researchers from MIT CSAIL have developed a robot that can help nurses schedule tasks. DiBenedetto writes that the robot “learns how to perform the scheduling job similarly to how a human would: through observation.”
During a Financial Times podcast, Prof. Heidi Williams speaks about her work studying the impact of patent policy and technology on medical research and health care. Williams explains that her work focuses on the role patents and policies play in developing "the medical technologies that are most beneficial to patients.”
Olga Kharif from Bloomberg Businessweek provides an overview of the origami robot created by Prof. Daniela Rus and her team. “Squeezed into a pill, this robot unfolds like an origami after it’s swallowed. It can be guided with a tiny magnet to remove a foreign object from the stomach or treat a wound by administering medication,” explains Kharif.
MIT researchers have developed a portable system that could produce biotech drugs on demand, reports Lisa Rapaport for Reuters. “The table-top machine has the potential to one day produce proteins to treat any number of a wide range of conditions like cancer, diabetes, heart attacks, and hemophilia,” writes Rapaport.
A portable device developed by MIT researchers uses programmable yeast to create drugs on demand, reports Jamie Ducharme for Boston Magazine. The device “could be a lifesaver for doctors working in vulnerable conditions, such as the battlefield, a remote village, or even an ambulance,” writes Ducharme.
Popular Science reporter Samantha Cole writes that MIT researchers have developed a laptop-sized, portable device that can produce biopharmaceuticals for doctors in remote locations. Cole explains that the device can “produce a single dose of treatment with a series of steps, using genetically engineered yeast cells as a mini 'factory' for a variety of customizable drugs.”
Boston Herald reporter Lindsay Kalter writes that MIT researchers have developed a portable pharmacy that can manufacture biopharmaceuticals and modify treatments. “Instead of relying on a cocktail that already exists, you can reprogram the reactor on demand to customize the treatment,” says Prof. Timothy Lu.