Articles tagged with Electrolysis
Researchers from the University of Illinois have developed a new approach to reduce energy consumption in CO2 electrolysis by using magnetism. The study demonstrates an energy savings range of 7-64% and replaces traditional iridium catalysts with more abundant nickel-iron alternatives.
A team of researchers at Michigan State University has developed more heat resilient silver circuitry by adding an intermediate layer of porous nickel, which helps to improve adhesion to ceramic components. The technology has the potential to benefit various industries, including automotive, aerospace, and energy.
Researchers at Mainz University have developed an electrolysis process to produce dichloro and dibromo compounds from contaminated soil, reducing the need for toxic chlorine and bromine. The method is broadly applicable, easy to scale up, and can even separate chlorine atoms from banned insecticides.
Researchers have discovered a way to convert CO2 into energy-rich carbon monoxide using electricity and an Earth-abundant catalyst, which can be used to produce fuels like synthetic diesel and jet fuel. The team's breakthrough could lead to the development of carbon-neutral products, reducing greenhouse gas emissions.
Researchers from Siberian Federal University create a self-configuring evolutionary genetic algorithm to automate X-ray diffraction quantitative phase analysis for accurate electrolyte composition analysis. The method improves the efficiency of aluminium production by reducing human involvement and errors.
Researchers at Stanford University have created electrochemical cells that convert carbon monoxide (CO) from CO2 into commercially viable compounds, including ethylene and acetate. The new design improves efficiency and concentration of products, making it a promising solution for capturing CO2 and mitigating climate change.
Researchers at the University of Delaware's Center for Catalytic Science and Technology have developed a novel two-step process to convert carbon dioxide into smaller molecules, increasing efficiency and producing ethylene and ethanol. The technology has the potential to drive chemical processes more affordably and environmentally-frie...
Researchers at Johannes Gutenberg University Mainz have developed a novel synthesis strategy for highly reactive substances, overcoming the formation of polymers through electrochemical polymerization. This method uses an environmentally friendly approach with minimal reagent waste and produces only hydrogen as byproduct.
The innovative method developed by JGU and Evonik Performance Materials GmbH allows for flexible reaction to available electricity supply, eliminating the need for customized electrolysis apparatuses. This breakthrough in electro-organic synthesis enables sustainable production of fine chemicals with minimal environmental impact.
A new method for minimally invasive tissue ablation surgery combines electrolysis with reversible electroporation, increasing the effectiveness of the procedure. The technique allows for faster treatment and greater control over the target area, potentially leading to safer and more effective cancer treatment.
Researchers have developed a novel catalyst that efficiently catalyzes the production of clean-burning hydrogen fuel, outperforming cost-prohibitive platinum and other less-expensive alternatives. The technology, based on carbon nanotubes, could make electrolysis reactions commercially viable using renewable energy sources.
A low-cost, energy-efficient method to extract titanium from ore has been selected by ARPA-E, promising a 60% reduction in titanium costs. The CWRU team's direct electrolytic process eliminates the need for expensive reducing agents, simplifying production and boosting domestic titanium manufacturing.
Scientists successfully produced hydrogen at a rate of 5.6 cubic meters per hour using High-Temperature Electrolysis, a system that improves upon conventional methods. The achievement has potential applications in producing liquid fuels and upgrading heavy oil deposits.