Plant power: A new method to model how plants move water globally
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Updates every hour. Last Updated: 23-Apr-2025 16:08 ET (23-Apr-2025 20:08 GMT/UTC)
Researchers, including UConn Department of Natural Resources and the Environment Assistant Professor James Knighton, Pablo Sanchez-Martinez from the University of Edinburgh, and Leander Anderegg from the University of California Santa Barbara, have developed a method to bypass the need for gathering data for over 55,000 tree species to better account for how plants influence the flow of water around the planet. Their findings are published in Nature Scientific Data.
As the world works to meet net-zero carbon goals, a new study offers a critical reminder: precision matters. The researchers suggest refining how we assess a natural carbon storage strategy to ensure the technology lives up to its potential as a climate change solution.
New, groundbreaking research shows how, at a local scale, agricultural research and development led to improved crop varieties that resulted in global benefits to the environment and food system sustainability. The Purdue University study appears in the latest issue of Proceedings of the National Academy of Sciences.
“At the global level, we see a reduction in cropland use from these technology improvements leading to gains in terrestrial carbon stock and avoided loss of threatened plant and animal species,” reported the team led by Purdue’s Uris Baldos, research associate professor of agricultural economics.
A team led by a Rutgers-New Brunswick scientist has concluded water did not arrive as early during Earth’s formation as previously thought, an insight that bears directly on the question of when life originated on the planet.
The finding, reported in the science journal Geochimica et Cosmochimica Acta, is significant because the data reported by the study support the idea that water arrived towards the final stages of Earth’s development into a planet from dust and gas, what geologists refer to as late accretion.
University of Oregon researchers have identified a sex chromosome in the California two-spot octopus. This chromosome has likely been around for 480 million years, since before octopuses split apart from the nautilus on the evolutionary tree. That makes it one of the oldest known animal sex chromosomes. The finding also is evidence that octopuses and other cephalopods, a class of sea animals that includes squid and nautiluses, do use chromosomes to determine their sex, answering a longstanding mystery among biologists.