Scientists have discovered that pairing bread wheat with a special soil fungus can significantly enhance its nutritional value. This partnership leads to bigger grains rich in zinc and phosphorus—without increasing anti-nutrients that block absorption. As a result, the wheat becomes a healthier option for human diets. Researchers believe this fungal strategy could offer a natural, sustainable way to fortify global crops with essential nutrients.
Scientists in Svalbard were shocked to find rain and greenery instead of snow during Arctic winter fieldwork. The event highlights not just warming—but a full seasonal shift with major consequences for ecosystems, climate feedback, and research feasibility.
A colossal 7.7 magnitude earthquake rocked central Myanmar in March 2025, marking the strongest quake in over a century. What makes this event groundbreaking isn't just the seismic power—it’s the unprecedented footage captured by a CCTV camera near the fault line. Researchers at Kyoto University used this rare video to measure the fault’s movement in stunning detail, confirming a rapid, pulse-like rupture and a subtle curve in the slip path. This real-time visual data opens a new frontier in earthquake science, potentially transforming how we understand and predict seismic behavior.
What made ribose the sugar of choice for life's code? Scientists at Scripps Research may have cracked a major part of this mystery. Their experiments show that ribose binds more readily and selectively to phosphate compared to other similar sugars, forming a structure ideal for RNA formation. This discovery hints at how nature might have selected specific molecules long before enzymes or life existed, and could reshape our understanding of life’s chemical origins.
New research from the University of Sydney sheds light on how coronaviruses emerge in bat populations, focusing on young bats as hotspots for infections and co-infections that may drive viral evolution. By analyzing thousands of samples over three years, scientists discovered that juvenile bats frequently host multiple coronaviruses simultaneously—offering a real-time window into how new strains might arise. These findings, while involving non-human-infecting viruses, provide a powerful model to forecast how dangerous variants could eventually spill over into humans, especially as environmental pressures bring bats closer to human habitats.
