Uncover reality

Artificial Intelligence (AI) is already transforming the way scientists design new medicines. In recent years, AI systems have helped researchers create potential drugs for antibiotic-resistant infections and even rare genetic diseases. However, when it comes to designing the tiny delivery systems that carry these drugs into human cells, progress has been slower. One of the most important delivery systems in modern medicine is lipid nanoparticles (LNPs) . These microscopic fat-based particles protect fragile genetic material and transport it safely into cells. LNPs played a crucial role in the development of mRNA vaccines during the COVID-19 pandemic, proving that they can revolutionize the field of medicine. Despite their importance, designing better lipid nanoparticles remains a major challenge. Scientists must carefully balance several chemical ingredients, and even small changes in these ingredients can significantly affect how the particles behave inside the body. Now, engineers a...

 For decades, astronomers have been puzzled by mysterious signals coming from the very center of our Milky Way galaxy. These unusual signals have defied explanation, leaving scientists wondering if they are seeing phenomena from unknown astrophysical events—or something far stranger. Now, a team of researchers may have found a clue that brings us closer to understanding one of the Universe’s biggest mysteries: dark matter. The Mystery of Dark Matter Dark matter is one of the most enigmatic substances in the Universe. Although it cannot be seen directly, scientists know it exists because of the way it influences the motion of stars and galaxies. In fact, dark matter makes up about 85% of all matter in the Universe , yet it does not interact with light, making it invisible to conventional telescopes. The existence of dark matter is inferred from the way galaxies hold together. Observations of large spiral galaxies show that they rotate so quickly that they should tear themselves apar...

Oil spills remain one of the most serious environmental threats worldwide. From devastating coastlines to killing marine wildlife, their impact stretches far beyond the immediate area of the spill. The financial costs of cleaning up oil spills run into billions of dollars, and traditional methods are often slow, hazardous, or damaging to sensitive ecosystems. Recognizing this global challenge, engineers at the in Australia have developed a pioneering solution: a remote-controlled minibot, named the “Electronic Dolphin,” that skims oil from water surfaces using a unique, eco-friendly filtering system inspired by the natural design of sea urchins. This innovation promises a safer, faster, and more precise approach to oil spill response, particularly in areas that are difficult or dangerous for human workers to access. The Global Problem of Oil Spills Oil spills occur when crude oil or petroleum products leak into the environment, typically as a result of tanker accidents, offshore drill...

A team of student engineers at the University of Southampton has achieved a world-first breakthrough that could set a global standard for trust in autonomous systems. In a live flight demonstration, an autonomous drone successfully recorded its operational and sensor data in real time onto a blockchain, creating a secure, tamper-proof record of its activity. This innovative blockchain verification system functions like a digital “black box,” ensuring that every action the drone takes can be independently verified. Using the Minima blockchain protocol , the system stores flight data on a secure digital ledger. Every device in the network runs a full blockchain node. While the data is stored locally on each device, everyone on the network can confirm the accuracy of the recorded information, making it virtually impossible to tamper with. As artificial intelligence (AI) and autonomous systems become more common in everyday life, regulators, insurers, and the public are increasingly deman...

A team of researchers has discovered something surprising about batteries: electrolytes can still work even when frozen . This finding challenges a long-held belief in battery science that electrolytes must remain liquid to allow ions to move inside a battery. The research was conducted by scientists from the Ulsan National Institute of Science and Technology (UNIST) and Korea Advanced Institute of Science and Technology (KAIST) . Their study shows that frozen organic electrolytes can still conduct lithium ions efficiently enough to power a battery. The work was published in the journal Advanced Materials and could open new possibilities for safer and more efficient Lithium Metal Batteries . This breakthrough suggests that solid-like “ice electrolytes” could help solve some of the biggest problems in next-generation batteries. Rethinking How Battery Electrolytes Work In most modern batteries, including the Lithium‑ion battery , the electrolyte is a liquid. Its job is simple but esse...

Astronomers have discovered thousands of planets outside our solar system, known as exoplanets. Many of these planets orbit small stars called red dwarfs. Because red dwarfs are the most common stars in the Milky Way galaxy, scientists once believed they might host a large number of habitable worlds. However, new research suggests the situation may not be so simple. A recent study by scientists Giovanni Covone and Amedeo Balbi indicates that planets orbiting red dwarf stars may struggle to support complex life. The reason is not just how much light these stars produce, but the quality of that light. According to their study, the type of light emitted by red dwarfs might not provide enough usable energy for plants or similar organisms to perform photosynthesis—the process that produces oxygen. Without oxygen, the evolution of complex life becomes far less likely. Why Red Dwarfs Are So Important in Astrobiology Red dwarf stars are small, cool stars that make up nearly 75 percent of the ...

Imagine creating a robot that can bend, grip, crawl, or even swim—all in under 10 minutes and for less than ten cents. That’s exactly what a team of engineers at the University of Oxford has achieved, opening the door for rapid, affordable, and creative experimentation in the world of soft robotics. Their groundbreaking work, published in Advanced Science , could transform how researchers, start-ups, and even students approach the design and construction of flexible robots. Breaking Barriers in Soft Robotics Soft robots are made from compliant, bendable materials that mimic the flexibility of living organisms. Unlike traditional rigid robots, soft robots can delicately handle fragile objects, squeeze through tight spaces, or adapt to unpredictable environments. These abilities make them ideal for applications such as search-and-rescue operations, minimally invasive surgery, wearable devices, and adaptive manufacturing. However, despite their promise, soft robots have been challenging t...