The Climate Foundationâs SeaForestation project has won a Milestone XPRIZE for carbon removal, from Elon Muskâs foundation.
According to the prizeâs official site, the competition âis aimed at tackling the biggest threat facing humanity â fighting climate change and rebalancing Earthâs carbon cycleâ.
Remarkably, the storm has rapidly intensified six times.
Rapid intensification describes an uptick in winds of 35 mph or greater in 24 hours. Research has shown rapid intensification increasing in frequency in many ocean basins because of rising ocean temperatures linked to human-caused climate change.
One of the oldest tools in computational physics â a 200-year-old mathematical technique known as Fourier analysis â can reveal crucial information about how a form of artificial intelligence called a deep neural network learns to perform tasks involving complex physics like climate and turbulence modeling, according to a new study.
The discovery by mechanical engineering researchers at Rice University is described in an open-access study published in the journal PNAS Nexus, a sister publication of the Proceedings of the National Academy of Sciences.
âThis is the first rigorous framework to explain and guide the use of deep neural networks for complex dynamical systems such as climate,â said study corresponding author Pedram Hassanzadeh. âIt could substantially accelerate the use of scientific deep learning in climate science, and lead to much more reliable climate change projections.â
Studying Our Oceanâs History To Understanding Its Future â Dr. Emily Osborne, PhD, Ocean Chemistry & Ecosystems Division, National Oceanic and Atmospheric Administration (NOAA)
Dr Emily Osborne, Ph.D. (https://www.aoml.noaa.gov/people/emily-osborne/) is a Research Scientist, in the Ocean Chemistry and Ecosystems Division, at the Atlantic Oceanographic and Meteorological Laboratory.
The Atlantic Oceanographic and Meteorological Laboratory (AOML), a federal research laboratory, is part of the National Oceanic and Atmospheric Administrationâs (NOAA) Office of Oceanic and Atmospheric Research (OAR), located in Miami in the United States. AOMLâs research spans tropical cyclone and hurricanes, coastal ecosystems, oceans and human health, climate studies, global carbon systems, and ocean observations. It is one of ten NOAA Research Laboratories.
With a B.S. in Geology from the College of Charleston and a Ph.D. in Marine Science from University of South Carolina, Dr. Osborne is currently involved in investigating regional and global biogeochemical issues related to ocean health and climate through the use of a combination of paleoceanographic approaches, new autonomous sensors, and conventional measurements on large multi-disciplinary oceanographic cruises.
Paleoceanography is the study of the history of the oceans in the geologic past with regard to circulation, chemistry, biology, geology and patterns of sedimentation and biological productivity. Paleoceanographic studies using environment models and different proxies enable the scientific community to assess the role of the oceanic processes in the global climate by the re-construction of past climate at various intervals.
This process of harvesting energy from rain is new.
Researchers in Italy have engineered an artificial leaf that can be embedded within plants to create electricity from raindrops or wind. It functions extremely well under rainy or windy conditions to light up LED lights and power itself, according to a report by IEEE Spectrum.
Fabian Meder, a researcher studying bioinspired soft robotics at the Italian Institute of Technology (IIT) in Genoa, Italy, told the science news outlet that the system could be practical for agricultural applications and remote environmental monitoring in order to observe plant health or monitor climate conditions.
Coldsnowstorm/iStock.
It functions extremely well under rainy or windy conditions to light up LED lights and power itself, according to a report by IEEE Spectrum published on Wednesday.
Social insects like bees demonstrate a remarkable range of behaviors, from working together to build structurally complex nests (complete with built-in climate control) to the pragmatic division of labor within their communities. Biologists have traditionally viewed these behaviors as pre-programmed responses that evolved over generations in response to external factors. But two papers last week reported results indicating that social learning might also play a role.
The first, published in the journal PLoS Biology, demonstrated that bumblebees could learn to solve simple puzzles by watching more experienced peers. The second, published in the journal Science, reported evidence for similar social learning in how honeybees learn to perform their trademark âwaggle danceâ to tell other bees in their colony where to find food or other resources. Taken together, both studies add to a growing body of evidence of a kind of âcultureâ among social insects like bees.
âCulture can be broadly defined as behaviors that are acquired through social learning and are maintained in a population over time, and essentially serves as a âsecond form of inheritance,â but most studies have been conducted on species with relatively large brains: primates, cetaceans, and passerine birds,â said co-author Alice Bridges, a graduate student at Queen Mary University of London who works in the lab of co-author Lars Chittka. âI wanted to study bumblebees in particular because they are perfect models for social learning experiments. They have previously been shown to be able to learn really complex, novel, non-natural behaviors such as string-pulling both individually and socially.â
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Companies could one day make superconductive quantum computer chips that function at room temperature thanks to a new material from researchers in the US. Ranga Dias from the University of Rochester and colleagues made a material superconductive at 21°C and pressures less than 1% of those used for existing high-temperature superconductors. âThe most exciting part is the pressure,â Dias tells Chemistry World. âEven I didnât think this was possible.â
Together with Ashkan Salamatâs team at the University of Nevada, Las Vegas, the scientists say that electrical resistance in their nitrogen-doped lutetium hydride falls to zero at room temperature. Making room-temperature zero-resistance materials is a chemistry âholy grailâ and could fight climate change by reducing the 5% of electricity lost as heat while flowing through the grid.
New research sheds lights on the resilient and technologically advanced Gravettian culture, which dominated Ice Age Europe and left a 20,000-year mark.