Prof. Giovanni Traverso and his colleagues have developed a pill that can report when it has been swallowed, which could be used to ensure patients are taking their medicine correctly. “According to the World Health Organization, nearly 50% of patients in need of long-term treatment do not take their medication as prescribed,” reports Inside Precision Medicine. “This new reporting system could be beneficial for a wide range of patient populations.”
Researchers at MIT have developed an ingestible pill that can communicate from the stomach and could help monitor patients' medication use, reports Prabhat Ranjan Mishra for Interesting Engineering. “After it sends out the signal that the pill has been consumed, most components break down in the stomach while a tiny RF chip passes out of the body through the digestive tract," writes Mishra.
Prof. Jonathan How and graduate student Yi-Hsuan (Nemo) Hsiao speak with Tech Briefs reporter Andrew Corselli about their latest work developing an aerial microrobot that is “agile enough complete 10 consecutive somersaults in 11 seconds, even when wind disturbances threatened to push it off course.” Hsiao explains that: “This work demonstrates that soft and microrobots, traditionally limited in speed, can now leverage advanced control algorithms to achieve agility approaching that of natural insects and larger robots, opening up new opportunities for multimodal locomotion.”
In a roundup of the biggest tech breakthroughs of 2025, Forbes reporter Alex Knapp spotlights how MIT engineers developed magnetic transistors, a “discovery [that] could enable faster and more energy-efficient semiconductors.”
Researchers at MIT have developed microscopic devices that “can travel autonomously through the blood and provide electrical stimulation to precise brain regions,” and could one day be used to treat brain diseases, mental illness, or other parts of the body, reports Zoe Kriegler for Medical Design & Outsourcing. The development of microscopic wireless electronic devices (SWEDs) could “eliminate the need for brain surgery in some cases, decreasing the risk to the patient and the expense of the procedure by hundreds of thousands of dollars,” Kriegler explains.
Researchers at MIT have “found a way to transform a flat sheet into a functional 3D object with a single pull of a string,” reports Luis Prada for Vice. “The team developed a computational method that lets users design three-dimensional objects that can be fabricated as flat grids and then deployed almost instantly with a single tug,” explains Prada.
Prof. Deblina Sarkar speaks with Forbes reporter William A. Haseltine about her work developing “circulatronics,” microscopic electronics devices that could one day be used to help treat brain diseases. “What we have developed are tiny electronic devices that can travel through body fluids and autonomously find their target regions, with no external guidance or imaging,” explains Sarkar. “They provide very precise electrical stimulation of neurons without the need for surgery.”
Researchers at MIT have developed a new type of material that can transform into a 3D structure with the simple pull of a string, reports Gayoung Lee for Gizmodo. The new material could “have an impressive range of applications, from transportable medical devices and foldable robots to modular space habitats on Mars,” Lee explains.
Writing for Sports Business Journal, Sloan Senior Lecturer Shira Springer highlights ways to increase attention and investment in women’s sports. “Reflecting on the year that was in women’s sports, professional ice hockey and track and field offered two case studies on raising awareness and building momentum by eventizing,” writes Springer. “Both events aimed to take women’s sports to new places – one literally focused on new cities for women’s ice hockey, while the other set its sight on historic territory for women’s track. In the process, and in different ways, both presented a vision for the future, a desire to go bigger, take calculated risks and see what happens.”
A new study co-authored by Prof. Lawrence Schmidt examining AI and job losses found that “AI can successfully complete many of a worker’s job responsibilities but not all,” reports Pattie Hunt Sinacole for Boston.com. “About 14% of roles within a company can be performed by AI, according to Schmidt’s research. However, AI is less effective in tasks where critical thinking may be required,” Hunt Sinacole explains.
Researchers at MIT have developed a new physical model that can help “improve predictions of proton mobility across a wide range of metal oxides,” reports Ameya Paleja for Interesting Engineering. “This can help develop new materials and technologies powered by protons as charge carriers, rather than relying on lithium, which is widely used now,” explains Paleja.
MIT researchers have developed “GelSight,” a system that provides robots with a sense of touch, reports Ben Guarino for Scientific American. “GelSight can identify by touch the tiny letters spelling out LEGO on the stud of a toy brick,” explains Guarino.
MIT researchers have developed a deep-learning model “capable of predicting the precise movements, divisions, and restructuring of thousands of cells during the embryo’s transition from a simple cluster to a complex organism,” reports Mrigakshi Dixit for Interesting Engineering. “This model currently provides a sneak peek into the fruit fly’s earliest developmental stage,” explains Dixit. “In the future, it could be used to predict how more complex tissues, organs, and organisms develop.”
Joseph Coughlin, director of the AgeLab, speaks with WBUR’s Here & Now host Indira Lakshmanan about his work developing a longevity index. “In our studies at the AgeLab, believe it or not, 70 percent of us believe that our significant other, or adult children are going to take care of us, [but] only 30 percent of us had the conversation.”
Reporting for FOX News, Kurt Knuttson highlights how MIT researchers have developed a new light-based scanner that can read blood sugar without a single prick. “A handheld or watch-sized glucose scanner would mark a major shift in diabetes care,” writes Knuttson. “MIT's work brings that future closer with a design that reads your chemistry through light.”