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For millions of people living with diabetes, daily insulin injections are a lifelong reality. Every meal, every activity, and every change in routine must be carefully balanced with insulin doses. But a pioneering new study may soon change that story forever. Scientists from the Technion—Israel Institute of Technology, working closely with MIT, Harvard University, Johns Hopkins University, and the University of Massachusetts, have developed a revolutionary living implant that acts like an artificial pancreas inside the body. The research, led by Assistant Professor Shady Farah, has been published in the prestigious journal Science Translational Medicine . This breakthrough introduces a tiny, cell-based implant that can sense blood sugar levels, produce insulin, and release exactly the right amount—automatically. Once implanted, it works entirely on its own, without pumps, injections, or daily patient involvement. In simple terms, it becomes a self-regulating, drug-making organ living ...

Hair loss affects millions of people worldwide and can deeply impact confidence and quality of life. For decades, treatments have mainly relied on medicines or bulky light-therapy helmets. While drugs may help, long-term use often raises concerns about side effects. Traditional phototherapy devices, on the other hand, are heavy, rigid, and inconvenient, keeping users tied to indoor spaces. Now, a breakthrough from international researchers may change everything. A joint research team from the Korea Advanced Institute of Science and Technology (KAIST) and the Hong Kong University of Science and Technology (HKUST) has developed a soft, wearable, hat-like phototherapy device that uses advanced OLED light technology. Even more impressive, laboratory tests show it can reduce aging in hair-follicle cells by up to 92% , a major factor responsible for hair loss. Their findings were published in the prestigious journal Nature Communications , marking a significant step forward in non-invasive ...

For decades, astronomers have believed that a supermassive black hole called Sagittarius A* (Sgr A*) sits at the center of our Milky Way galaxy. This invisible giant was thought to control the fast-moving stars near the galactic core and help shape the motion of the entire galaxy. But now, a groundbreaking new study suggests something even more mysterious may be at work. Instead of a black hole, scientists propose that the Milky Way’s heart could be powered by a dense core of dark matter —an exotic substance that makes up most of the universe but cannot be seen directly. The research, published in Monthly Notices of the Royal Astronomical Society , could radically change how we understand our galaxy. Rethinking the Galaxy’s Dark Center At the center of the Milky Way lies a crowded region filled with stars, gas, and dust. Among these are the famous S-stars , which orbit extremely close to the galactic core at incredible speeds—sometimes reaching thousands of kilometers per second. Th...

 Imagine a future where brain implants don’t just connect with neurons—they also help the skull heal itself. That future may be closer than we think. Researchers at Dartmouth Engineering have developed a promising new technique that combines electronic brain implants with materials that encourage natural bone regrowth. The approach could change how doctors place long-term brain devices and make recovery safer, faster, and more comfortable for patients. The study, led by professors Alexander Boys and Katie Hixon , brings together two powerful fields: thin-film bioelectronics and regenerative tissue engineering . Their work was recently published in Advanced Materials Technologies and will appear on the journal’s cover in March. At its heart, this innovation solves two major problems at once: how to maintain long-term access to the brain and how to restore the skull after surgery. Two Challenges, One Smart Solution Today, placing any electronic device on the brain—such as implants...

China has once again pushed the boundaries of robotics with the debut of Bolt , a full-size humanoid robot that can sprint at an astonishing speed of 10 meters per second (36 km/h or 22 mph). Developed by MirrorMe Technology , Bolt represents a significant leap forward in humanoid robotics, combining human-like motion with extreme athletic performance. The announcement marks a milestone in bipedal robot design. According to MirrorMe, Bolt is the first humanoid robot of its size to reach such speeds outside of controlled laboratory conditions , making it a breakthrough in real-world robotic locomotion. Bolt: The New Standard in Robot Speed Standing at 175 centimeters (5.7 feet) and weighing 75 kilograms (165 pounds) , Bolt is built to mimic the human form while delivering unparalleled performance. Unlike many robots designed primarily for industrial or research purposes, Bolt was engineered with speed, agility, and natural human-like movement in mind. The robot’s success comes from new...

In the quest to make satellites lighter, more efficient, and more versatile, engineers have often faced a major challenge: transferring energy between components in space. High-powered satellites rely on electromagnetic waveguides—structures that guide microwave energy from one part of the spacecraft to another. Traditionally, these waveguides are made of heavy, rigid metal tubes with substantial flanges at both ends, which ensure stability and connectivity. While effective on Earth, these bulky designs are far from ideal for space, where every gram counts and launch volumes are limited. Enter the world of origami-inspired engineering. Drawing inspiration from the ancient art of paper folding, Xin Ning, a researcher at the Department of Aerospace Engineering in The Grainger College of Engineering at the University of Illinois Urbana-Champaign, and his graduate students have developed flexible, lightweight waveguides that can fold for launch and expand once in orbit. "Because the m...

Imagine a robot arm that can gently hold fragile objects, adapt instantly when something changes, and keep working even if part of it fails—all without being retrained. Thanks to a new artificial intelligence (AI) control system, this vision is now much closer to reality. Researchers from the Singapore–MIT Alliance for Research and Technology (SMART), National University of Singapore (NUS), Massachusetts Institute of Technology (MIT), and Nanyang Technological University (NTU Singapore) have developed a groundbreaking controller that allows soft robotic arms to learn many skills once and then adjust automatically to new situations. This innovation brings soft robotics closer to human-like adaptability and opens the door to safer, smarter robots in healthcare, industry, and everyday life. What Makes Soft Robots Special? Traditional robots are built with rigid metal parts, motors, and joints. They are powerful and precise, but they can also be dangerous around people and struggle in unpr...