Scientists reveal our best- and worst-case scenarios for a warming Antarctica
Peer-Reviewed Publication
Updates every hour. Last Updated: 20-Feb-2026 09:11 ET (20-Feb-2026 14:11 GMT/UTC)
Antarctica’s pale expanses of ice keep water locked up and reflect heat from the planet — but the climate crisis is putting these safeguards at increasing risk. Antarctica is warming much faster than the global average, which could destroy its ecosystems and put other parts of the planet at risk by driving sea level rise and damaging food chains. Scientists modelling possible climate crisis outcomes for the Antarctica Peninsula show just how high the stakes are if we don’t act now.
Each molecule has its own unmistakable tone, but the voices of individual molecules are so faint that traditional infrared spectroscopy can only detect the collective chorus of millions or billions of molecules at once. Now researchers at UC San Diego, led by Shaowei Li, have found a way to hear a single molecule sing, using an approach they call infrared-integrated STM, or IRiSTM.
A team of researchers has found a way to steer the output of large language models by manipulating specific concepts inside these models. The new method could lead to more reliable, more efficient, and less computationally expensive training of LLMs. But it also exposes potential vulnerabilities. The researchers present their findings in the Feb. 19, 2026, issue of the journal Science.
Astronomers have long debated why so many icy objects in the outer solar system look like snowmen. Michigan State University researchers now have evidence of the surprisingly simple process that could be responsible for their creation. Jackson Barnes, an MSU graduate student, has created the first simulation that reproduces the two-lobed shape naturally with gravitational collapse. His work is published in the Monthly Notices of the Royal Astronomical Society.
Made from human stem cells, neural organoids are sophisticated models of brain development and diseas. But scientists could only record activity from a small fraction of the organoid’s neurons. Soft, 3D device contains hundreds of miniaturized electrodes and envelopes 91% of the organoid. Device moves organoid research from localized probing to whole-network monitoring and control of neural activity.