California is rapidly transitioning to renewable fuels, but the state faces challenges in storing power for the electric grid. Solar power drops at night and declines in winter, while wind power ebbs and flows. As a result, natural gas is heavily relied upon to smooth out the highs and lows of renewable power generation. However,
Chemistry
Hydrogen (H2) has long been recognized as a promising fuel for reducing greenhouse gases, particularly when produced using renewable energy sources to split water molecules (H2O). However, the process of breaking water into hydrogen and oxygen is more complex than it may initially appear. This complexity stems from the need for catalysts to facilitate two
Many people struggle with split ends, a common hair problem that can cause frustration and damage. The science behind split ends is not well understood, prompting researchers to delve deeper into this knotty issue. A team at Trinity College Dublin, led by Professor David Taylor, has developed a machine specifically designed to investigate split ends
Halogen bonds play a significant role in directing sequential dynamics in multi-functional crystals, offering insights essential for developing ultrafast-response times for multilevel optical storage. These intermolecular interactions arise from the attraction between a halogen atom and another atom with lone pairs, contributing to the development of innovative photo-functional materials. Despite the crucial role of halogen
In a recent breakthrough reported in the Journal of the American Chemical Society, a team of researchers led by Professor Han Gi Chae and Professor Jong-Beom Baek at UNIST have developed a new technology to address the limitations of current catalyst electrodes, paving the way for the large-scale production of green hydrogen at a relatively
The waste-to-wealth movement has sparked a renewed interest in technologies that can convert greenhouse gases into valuable materials. Among these technologies, the catalytic conversion of methane into methanol has emerged as a promising solution. Methanol is a widely used industrial solvent and raw material for various chemical synthesis processes. However, the traditional industrial process for
The University of Virginia School of Engineering and Applied Science has recently made a groundbreaking advancement in the field of chemical engineering. Through innovative research, they have found a way to revolutionize the fabrication of MOF-525, a material with the ability to extract and convert carbon dioxide. This discovery has the potential to significantly impact
In a groundbreaking study published in Science, Prof. Bozhi Tian’s lab has unveiled a cutting-edge prototype for “living bioelectronics” that combines living cells, gel, and electronics in a revolutionary new way. This innovative approach represents a significant leap forward in the integration of electronics with the human body, offering promising new possibilities for the future
Auxetic materials are a marvel of engineering, defying common sense with their unique properties. When stretched, these materials become wider and fatter, rather than narrower and thinner like conventional materials. This exceptional characteristic opens up a wide range of applications, from sneaker insoles to bomb-resistant buildings. The Challenge of Bringing Auxetic Products to Market Despite