Study finds elephant loss sets off ecosystem chain reaction starting with dung beetles
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Updates every hour. Last Updated: 18-Jun-2026 08:16 ET (18-Jun-2026 12:16 GMT/UTC)
A new University of Florida co-authored study in Science found that African elephants are a keystone species whose loss can trigger ecosystem collapse, including major declines in dung beetles and the ecological services they provide.
W. M. Keck Foundation Bridge Funding Initiative grants $600,000 to Salk scientist, graduate student pairings. The three teams will each tackle their own projects, spanning cancer, neuroscience, and genetics. The grants accelerate high-risk, high-reward science that otherwise would be difficult to pursue in today’s science funding landscape.
When intestinal lining breaks down, it can allow harmful gut bacterial antigens to slip into the bloodstream alongside nutrients. This breach in the gut’s protective barrier, known as "leaky gut," is more than a digestive issue – it’s a sign of inflammatory bowel disease and has been increasingly linked to a number of chronic conditions.
A team of researchers working in the lab of UNLV cellular biologist Prasun Guha has uncovered a key mechanism underlying leaky gut and identified a promising and natural way to repair it. In a new study, the team shows how phytic acid, a natural compound found in whole grains, beans, lentils, nuts, and seeds, plays an important role in maintaining the integrity of the intestinal barrier.
A new study argues that protected areas alone cannot safeguard Africa’s biodiversity, urging a shift to inclusive, community-centered conservation across human-managed landscapes.
Researchers have found that your heart already has its own 'natural bypass' system that can predict whether the heart muscle beyond it is alive or dead. A new study reveals how tiny hidden vessels could hold the key to deciding who really needs complex and risky surgery - and who doesn’t. The team found that a simple angiogram scoring system could help identify patients whose heart muscle is still alive - even when a major artery has been completely blocked for months. It is hoped that the breakthrough could change how cardiac patients are treated.
LMU researchers show that certain cell organelles can efficiently compensate for mistranslated proteins – a possible key to their acclimation to environmental stress.
Genetically engineered cyanobacteria developed at Institute of Science Tokyo (Science Tokyo), Japan, produce sulfated polysaccharides using sunlight and carbon dioxide. By transferring an entire gene cluster responsible for the production of a sulfated polysaccharide, the researchers enabled a non-producing cyanobacterial strain to produce such a polysaccharide. The research demonstrates a sustainable route for manufacturing biomaterials using photosynthesis, expanding the possibilities for synthetic biology and green chemistry applications.