MIT.nano

Using an ordinary fridge magnet to control a microrobot might sound like fiction, but a team of MIT researchers engineered a technique to 3D-print magnetically activated robots and other materials that could be used in medicine and varying fields. MIT graduate students Andrew Chen and Rachel Sun joined Edgar B. Herwick III of GBH’s Curiosity Desk to discuss their work and inspiration. Sun explains that ultimately, they’re “trying to develop these materials for everyday uses that push the frontiers of what’s possible and how we can help people in society.” 

Reporting from MIT, GBH’s Kirk Carapezza highlights how MIT is launching a “major effort to advance quantum computing, with a state investment of $25 million to help build a new research facility in Cambridge.” Said President Sally Kornbluth: “Everything you can think of that uses classical computing now, think about quantum speeding it up, making it more efficient. We think about the AI revolution and the expenses of AI and data centers. This is going to be impacted by a whole new different way of computing.”

President Sally Kornbluth and Governor Maura Healey announced the establishment of a new quantum hub at MIT, called the Quantum Systems Laboratory, which is aimed at enabling scientists to undertake impactful work applying quantum research across practical domains, including life sciences and national defense, reports Aaron Pressman for The Boston Globe. “Greater Boston has the greatest concentration of quantum talent anywhere in the world,” said Kornbluth. “It has been clear to us for some time that if we could magnify all of that talent with the right facilities and shared quantum toolbox, we could establish Massachusetts as a national hub for quantum innovation.”

To help establish Massachusetts and the nation as a quantum leader, President Sally Kornbluth and Governor Maura Healey announced plans for a new share-used quantum research facility at MIT, writes Axios reporter Steph Solis. The Quantum Systems Laboratory would “host teams focused on using quantum mechanics for life sciences and defense research, but what would set the MIT project apart from existing labs is its ability to power direct communication among multiple quantum computers,” Solis explains. 

Thanks in part to a $25 investment from the Commonwealth of Massachusetts, MIT plans to open the Quantum Systems Laboratory, which will “provide quantum experts from across Massachusetts access to quantum hardware and specialized equipment,” reports Lucia Maffei for the Boston Business Journal. "This is good news for MIT, good news for Massachusetts and, frankly, good news for the world," said Governor Maura Healey. "This is really setting the stage to have cutting-edge quantum computers be able to operate in that building," said President Sally Kornbluth. "There will be many people throughout Massachusetts who come to use this facility. It's really a hub to make Massachusetts a quantum center.” 

State House News Service reporter Katie Castellani writes that President Sally Kornbluth and Governor Maura Healey announced a new shared-use quantum facility at MIT, the Quantum Systems Laboratory (QSL), aimed at providing scientists the opportunity to apply quantum research across various sectors, including defense and the life sciences. The QSL will “bring quantum computers together with quantum sensors and peripherals through physical channels that transfer information,” Castellani explains. 

MIT engineers have developed a new low-temperature process for extracting battery-grade lithium from hard rock, while also reducing waste, reports Gayoung Lee for Gizmodo. “Mining is essential to technology and therefore to society, yet it is perceived negatively by much of the public as a destructive, polluting industry, in some cases with good reason,” explains Prof. Yet-Ming Chiang. “We hope to help change that perception by showing that there are cleaner, more sustainable ways to do it.”

MIT researchers have developed a new smart pill that could be used to help doctors track treatment more accurately, and ensure patients stay on their medication schedule, reports Kurt Knutsson for Fox News. “If you or a loved one relies on critical medication, this kind of technology could add an extra layer of safety,” Knuttson explains. “It may reduce guesswork for doctors and ease pressure on patients who manage complex treatment plans.” 

In an effort to help medical professionals ensure patients are taking medications as prescribed, researchers at MIT have developed a “drug capsule containing an RFID tag that uses radiofrequency (RF) signals to communicate that it has been swallowed, and then bioresorbs into the body,” reports Tami Freeman for Physics World. “Medication non-adherence remains a major cause of preventable morbidity and cost, but existing ingestible tracking systems rely on non-degradable electronics,” explains Prof. Giovanni Traverso. Our motivation was to create a passive, battery-free adherence sensor that confirms ingestion while fully biodegrading, avoiding long-term safety and environmental concerns associated with persistent electronic devices.”  

Interesting Engineering reporter Atharva Gosavi features MIT researchers and their work developing a passive atmospheric water generator. The researchers developed a “passive device that harvests clean drinking water from desert air without electricity,” explains Gosavi. “The window-sized panel uses a hydrogel-desiccant combo absorbing vapor at night and releasing it via sunlight-driven condensation – no batteries, fans, or power needed.” Gosavi adds that the device is a “perfect climate-resilient solution for droughts.”  

Researchers at MIT have developed an ingestible “smart pill” that uses radio frequency to communicate from the stomach when patients have taken their medications. “It may sound simple, but the stakes are high,” reports McKenzie Beard for the New York Post. “Studies show that half of all Americans with chronic conditions don’t take their long-term medications as prescribed.” 

Researchers at MIT have developed an ingestible pill that “contains a biodegradable radiofrequency antenna” which can be used to monitor patients’ medication intake, reports Nancy Lapid for Reuters. “After [the antenna] sends out the signal that the pill has been consumed, most components break down in the stomach while a tiny radiofrequency chip passes out of the body through the digestive tract,” explains Lapid. 

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. 

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.