
Gas bubbles form as researchers use a unique catalyst to convert water to hydrogen and oxygen. The inset image shows the catalytic materials at the nanoscale. Credit: Washington State University


Gas bubbles form as researchers use a unique catalyst to convert water to hydrogen and oxygen. The inset image shows the catalytic materials at the nanoscale. Credit: Washington State University

On present-day Europa, the researchers expect water could reach as deep as 25 kilometers (15 miles) into the rocky interior, driving key chemical reactions throughout a deeper fraction of Europa’s seafloor. Credit: NASA/JPL/University of Arizona
The ocean of Jupiter’s moon Europa could have the necessary balance of chemical energy for life, even if the moon lacks volcanic hydrothermal activity, finds a new study. Europa is strongly believed to hide a deep ocean of salty liquid water beneath its icy shell. The answer may hinge on whether Europa has environments where chemicals are matched in the right proportions to power biological processes. Life on Earth exploits such niches.
JPL scientists compared Europa’s potential for producing hydrogen and oxygen with that of Earth, through processe...
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Two-dimensional metastructured film with Titanium Oxide is fabricated as a photo-catalytic photoanode with exceptional visible light absorption. Credit: Copyright UNIST
A new multilayered (Au NPs/TiO2/Au) photoelectrode boosts ability of solar water-splitting to produce hydrogen. According to the research team, this special photoelectrode, inspired by the way plants convert sunlight into energy is capable of absorbing visible light from the sun, and then using it to split water molecules (H2O) into H2, O2.
This multilayered photoelectrode takes the form of 2D hybrid metal-dielectric structure, which mainly consists of 3 layers of gold (Au) film, ultrathin TiO2 layer (20 nm), and gold nanoparticles (Au NPs)...
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A computer simulation of the formation of complex organic molecules in space. The spherical molecular structures forming on the graphene surface at 3000 K are similar in shape to fullerenes. The red atoms originated in the gas phase and the white atoms are from the surface. Credit: Marshall and Sadeghpour
The space between stars is not empty, but contains an abundance of diffuse material, about 5-10% of the total mass of our galaxy (excluding dark matter). Most of the material is gas, predominantly hydrogen, but with a small and important component in complex carbon-bearing molecules including ethene, benzene, propynal, methanol and other alcohols, cyanides, simple amino acids, and even larger molecules (polycyclic aromatic hydrocarbons and buckyballs) with 50 or more carbon atoms...
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