One of the great unknowns in climate models is the behavior of certain gases that often smell strongly and cause water to condense. TU Wien (Vienna) is providing new insights into this.
Physicists from the University of Luxembourg together with experts from Avant-garde Materials Simulation (AMS) and seven pharmaceutical companies have redefined the state-of-the-art in modeling and predicting the free energy of crystals.
An international group of 35 scientists is calling out conflicts of interest plaguing global plastic treaty negotiations and that have interfered with timely action on other health and environmental issues.
Indoor light could someday power smart devices, but not all solar panel technologies have the same level of success, according to research in ACS Applied Energy Materials.
Off Barbados, researchers from Bremen have investigated how bacteria inadvertently release methane in order to obtain phosphorus – with significant effects on atmospheric greenhouse gases.
Researchers found that one of the most promising electrolytes for designing longer lasting lithium batteries has complex nanostructures that act like micelle structures do in soaped water.
Researchers in ACS Central Science report a proof-of-concept device that “sniffs” seawater, trapping dissolved compounds for analyses. The team showed that the system could easily concentrate molecules that are present in underwater caves and holds promise for drug discovery in fragile ecosystems, including coral reefs.
This blog post celebrates highlights from the brilliant career of astronomer Paul Vanden Bout, who recently received the Karl G. Jansky Lectureship from NRAO. Vanden Bout's vision for millimeter-wavelength astronomy led to the creation of several major radio telescopes around the world.
Beckman researchers developed a cost-friendly, customizable, electrochemistry robot called the Electrolab to perform autonomous experiments in the laboratory. The Electrolab will be used to explore next-generation energy storage materials and chemical reactions that promote alternative and sustainable energy.
The SUNY College of Environmental Science and Forestry (ESF) — one of the nation’s premier colleges focused exclusively on the study of the environment, developing renewable technologies, and building a sustainable future — welcomes 22 new faculty members to the College for the 2023-24 academic year.
Researchers led by Professor KANG Kisuk of the Center for Nanoparticle Research within the Institute for Basic Science (IBS), have announced a major breakthrough in the field of next-generation solid-state batteries. It is believed that their new findings will enable the creation of batteries based on a novel chloride-based solid electrolyte that exhibits exceptional ionic conductivity.
Do we really know how the brain works? In the last several decades, scientists have made great strides in understanding this fantastically complex organ. Scientists now know a great deal about the brain’s cellular neurobiology and have learned much about the brain’s neural connections, and the components that make up these connections.
A team led by a University of Illinois chemistry professor recently created copper molecules that can transfer electrons at least an order of magnitude faster than previously reported. Finding faster, more efficient ways to transfer electrons between synthetically made molecules could lead to more efficient energy conversion technology, like solar panels.
Scientists at St. Jude Children’s Research Hospital determined structures of a transporter protein involved in the movement of neurochemicals such as serotonin and dopamine, unearthing multiple mechanisms that can guide drug development.
Cathy Sue Cutler, who has served as director of the Medical Isotope Research and Production (MIRP) program at the U.S. Department of Energy's (DOE) Brookhaven National Laboratory since 2015, has been tapped to lead a newly created Isotope Research and Production (IP) Department at the Laboratory.
Research published in ACS Central Science shows that beads containing engineered E. coli could efficiently transform PET waste into a starting material for nylon, drugs and fragrances.
Biological potassium ion channels allow selective permeation of larger K+ (ionic radius of 1.3 Å) over smaller Na+ (1.0 Å) with selectivity ratio over 1000-fold.
UC San Diego engineers have developed modular nanoparticles that can be easily customized to target different biological entities such as tumors, viruses or toxins. The surface of the nanoparticles is engineered to host any biological molecules of choice, making it possible to tailor the nanoparticles for a wide array of applications, ranging from targeted drug delivery to neutralizing biological agents.
Water and UV radiation rapidly and efficiently degrade crosslinked polymers of diaper liners without needing any chemicals – recycled plastic molecules can be used in various ways
Associate Professor of Chemistry and Biochemistry Kenneth Hanson will receive the 2023 Gold Medal Award, which has been presented annually since 2004 to a scientist or scholar in Tallahassee and the greater Big Bend region whose career achievements in science as well as science education and outreach are deemed exemplary.
Scientists refined the method of diffusion saturation of steel and combined it with polishing in electrolyte plasma. Under the influence of current in solutions, that contained nitrogen, boron and carbon, on the surface of samples there was a formation of modified structure.
Layered lithium cobalt oxide, a key component of lithium-ion batteries, has been synthesized at temperatures as low as 300°C and durations as short as 30 minutes.
What if your house plant could tell you your water isn’t safe? Scientists are closer to realizing this vision, having successfully engineered a plant to turn beet red in the presence of a banned, toxic pesticide.
The quintessential female sex hormone estrogen stimulates cells that line blood vessels to deliver insulin to muscles, lowering blood sugar and protecting against Type 2 diabetes, UT Southwestern Medical Center researchers report. The findings, published in Nature Communications, could eventually lead to new therapies for Type 2 diabetes, a disease that affects hundreds of millions of people around the globe and continues to grow more prevalent.
A revised method to create hydrophobic surfaces has implications for any technology where water meets a solid surface, from optics and microfluidics to cooking
Scientists at the Department of Energy’s Oak Ridge National Laboratory used carefully planned chemical design, neutron scattering and high-performance computing to help develop a new catalytic recycling process. The catalyst selectively and sequentially deconstructs multiple polymers in mixed plastics into pristine monomers. The new organocatalyst has proven to efficiently and quickly deconstruct multiple polymers — in around two hours. Such polymers include those used in materials such as safety goggles (polycarbonates), foams (polyurethanes), water bottles (polyethylene terephthalates) and ropes or fishing nets (polyamides), which together comprise more than 30% of global plastic production. Until now, no single catalyst has been shown to be effective on all four of these polymers.
Scientists improved the method of plasma electrolytic treatment, in frames of which on the surface of sample from stainless steel they formed oxide coating. They used solutions that contained compounds of nitrogen, boron and carbon, that led to formation of corresponding modified layer under oxide coating.
Dr. Jae-Woo Choi of the Center for Water Cycle Research at the Korea Institute of Science and Technology (KIST) has developed an eco-friendly metal-organic skeleton-based solid flocculant that can effectively aggregate nanoplastics under visible light irradiation.
In a finding that helps elucidate how molten salts in advanced nuclear reactors might behave, scientists have shown how electrons interacting with the ions of the molten salt can form three states with different properties.
In a plant microbiome, the microbial community assembles and changes by exchanging signals between the host plant and the microbes. Researchers have gathered and filtered a large amount of data using a combination of computational approaches to identify new mechanisms in this signaling process. The study discovered a host transport mechanism and a chemical signal that influences beneficial bacterial colonization of plants’ roots.
Researchers from Iowa State University and the University of California, Santa Barbara will work together to fundamentally change the capabilities of light-based 3D printing.
Special nanoparticles could one day improve modern imaging techniques. Developed by researchers at Martin Luther University Halle-Wittenberg (MLU), the properties of these unique nanoparticles change in reaction to heat. When combined with an integrated dye, the particles may be used in photoacoustic imaging to produce high-resolution, three-dimensional internal images of the human body