Research from Emory University on the International Space Station found that microgravity promotes faster growth and greater resistance of heart cells derived from stem cells. This scientific achievement opens new doors to the development of more effective regenerative therapies for the treatment of severe heart damage.
Scientists at MIT and Duke University are using an advanced machine learning model to discover new molecules, mechanophores, that make plastics extremely tear-resistant. This innovative strategy, which is based on the incorporation of "weak links" into polymers, promises longer-lasting products and a significant reduction in global plastic waste.
Research conducted on the International Space Station (ISS) brings a turning point in the fight against blindness. Oculogenex's innovative gene therapy, targeting the BMI1 gene, not only stops retinal deterioration caused by macular degeneration, but also shows the incredible potential of restoring damaged cells.
A groundbreaking study reveals how global tumbling circulation is shaping South Pacific microbial communities. A detailed genetic map shows a rapid increase in biodiversity below 300 meters, defining six unique microbial cohorts associated with water masses. Understanding these processes is crucial for the future of the ocean carbon cycle due to climate change.
Professor Benjamin Mangrum's new book "Comedy of Computation" explores why we use humor to deal with technology. From the fear induced by HAL 9000 to the satirical depiction of Silicon Valley, comedy helps us assimilate machines into our lives, turning the anxiety and absurdities of the digital age into laughter
Scientists at MIT have discovered that lanthanides, rare-earth metals, strengthen plants by replacing magnesium in chlorophyll. This interaction not only stimulates growth, but also gives plants unexpected resistance to UV radiation, and the new method of application through seed treatment offers a more environmentally friendly alternative.