Articles tagged with Hydrogen Storage
Lueking's group inadvertently stumbled upon a method that combines hydrogen production and storage, producing nanocrystalline diamonds as a by-product. The researchers used ball milling to mix anthracite coal with cyclohexene, resulting in the formation of Bucky diamonds.
Researchers at Brookhaven National Laboratory are working on developing practical hydrogen-storage materials by doping sodium alanate with titanium. The goal is to create a material that can store and release hydrogen efficiently, enabling large-scale energy storage for fuel cells and other applications.
A team of Brown University chemists has developed a new class of molecules that exhibit fast and efficient catalytic properties, making them suitable for use in the pharmaceutical industry. The compounds also show promise for storing hydrogen and other gases, which could be used to generate clean energy.
NIST researchers discovered that metal-organic frameworks (MOFs) can store up to 10% of their weight in hydrogen at low temperatures. The nano-cage structure offers a promising approach for storing and releasing hydrogen, which could potentially replace fossil fuels in future automobiles.
Researchers aim to mass produce technologies for consumer market, focusing on fundamental research and nanofabrication techniques to improve hydrogen storage and generation from solar cells. The grants are part of a $64 million DOE initiative aiming to make vehicles powered by hydrogen fuel cells available and affordable by 2020.
A research group led by Manoranjan Misra has developed a novel method to split water molecules and generate hydrogen using solar light. The method involves titanium dioxide nanotube arrays, which can efficiently produce hydrogen energy in a more efficient manner than current market standards.
Purdue University researchers have discovered a catalyst that can produce hydrogen without extreme cold temperatures or high pressures. This method could offer solutions to fuel cell development, potentially replacing fossil fuels in automobiles.
PNNL scientists employed x-ray spectroscopy to observe the reaction as it occurred, identifying a cluster of four rhodium atoms at the active site. This approach allows researchers to understand catalyst-reactant interactions under practical conditions, shedding light on key catalytic processes.
Researchers have developed porous support materials that can withstand the rigors of high-temperature reforming of hydrocarbon fuels. The new materials satisfy all three key requirements for a catalyst support: high surface area, stability at high temperatures, and low pressure drop.
Studies have shown that safe fuel tanks can hold more than 6% of their weight in hydrogen to make nonpolluting cars viable. Carbon structures like titanium-coated nanotubes and Scandium-coated buckyballs can store up to 8% and 9% of their weight in hydrogen, respectively.
Researchers at PNNL have developed a new solid chemical material that can release hydrogen almost 100 times faster than conventional methods. The nanophase material achieves this high rate of hydrogen release at a lower temperature, making it an attractive option for sustainable hydrogen storage.
Scientists at Newcastle University have discovered a way to safely store and release hydrogen, paving the way for pollution-free cars. The breakthrough uses nanoporous materials to trap and release hydrogen gas, which could power vehicles in the future.
Scientists have discovered that adding titanium to sodium aluminum hydride enables reversible hydrogen release and absorption. The titanium acts like a molecular 'key,' facilitating the reaction. Understanding this mechanism may lead to improved hydrogen storage materials and better catalysts for fuel cells.
The US Department of Energy allocates $318 million for fuel cell and hydrogen research, focusing on efficient production and storage. New technologies aim to reduce emissions and enhance energy security.
Researchers at the University of Chicago have developed a new method to store hydrogen fuel, using icy materials that require less stringent temperature and pressure conditions. The discovery could help explain how hydrogen is incorporated in planetary bodies and potentially power cars.
Researchers at Penn State have developed a system to remove hydrogen odorant using adsorbers, enabling the use of pure hydrogen in fuel cells. The system also addresses hydrogen storage concerns by utilizing a metal hydride system based on magnesium, which is stable up to 554 degrees Fahrenheit.
Researchers found that some contact lens solutions may not effectively kill Acanthamoeba cysts, which can lead to serious eye infections. The two-step hydrogen peroxide solution was the most effective against both trophozoites and cysts.
The discovery shows that confining hydrogen molecules in small spaces creates measurable magnetic interactions, which could lead to a better understanding of solar cell efficiency. The researchers believe this finding has fundamental implications for the study of nanomaterials and their potential applications.