Vanadyl phosphate can theoretically accept twice the number of lithium ions as battery materials currently in use. In practice, however, it doesn’t live up to expectations. New research at Beamline 6.3.1 using a variety of hard and soft x-ray spectroscopies helps zero in on why. Read more »
Industrial-Academic Collaboration Gives Nanoscale Insight into Batteries
An industrial collaboration between Hummingbird Scientific and a team of researchers from the ALS, SLAC, Berkeley Lab, Stanford University, and other institutions has resulted in a new x-ray microscopy platform that gives scientists the ability to image nanoscale changes inside lithium-ion battery particles in real time as they charge and discharge. Insights obtained from the imaging platform have already provided surprising new insights and could help researchers improve batteries for electric vehicles as well as smart phones, laptops, and other devices. Read more »
Solar Cells Get Boost with Integration of Water-Splitting Catalyst onto Semiconductor
Scientists have found a way to engineer the atomic-scale chemical properties of a water-splitting catalyst for integration with a solar cell, and the result is a big boost to the stability and efficiency of artificial photosynthesis. Read more »
Tender X-Rays Map the Double-Layer Potential
In a first-of-its-kind experiment, ALS researchers demonstrated a new, direct way to study the inner workings of a phenomenon in chemistry known as an “electrochemical double layer” that forms where liquids meet solids—where battery fluid meets an electrode, for example. Read more » 
A Surface Treatment for Improving Fuel-Cell Cathodes
Solid-oxide fuel cells (SOFCs) are a promising path toward the “clean” conversion of chemical energy to electrical energy with little or no carbon dioxide emission. With the help of the ALS, researchers from MIT recently found a way to treat SOFC cathode surfaces so that they perform better and last longer. Read more »
New Catalyst Boosts Selective Formation of Olefins from Syngas
Experiments at the ALS have helped to explain how a new catalyst significantly boosts the selective formation of light olefin molecules—important building blocks in the petrochemical industry—from syngas. The new process could allow for the use of alternative syngas feedstocks that save water and energy. Read more »
New Insights into Oxygen’s Role in Lithium Battery Capacity
Researchers working at the ALS have recently made new discoveries in understanding the nature of charge storage in lithium-ion (Li-ion) batteries, opening up possibilities for new battery designs with significantly improved capacity. Looking at a popular Li-rich cathode material, the researchers used soft x-ray techniques to quantifiably explain oxygen’s role in Li-ion charge capacity. Read more »
New Fuel Cell Design Powered by Graphene-Wrapped Nanoparticles
Hydrogen is the lightest and most plentiful element on Earth and could serve as a carbon-free, virtually limitless energy source. Recently, researchers working at the ALS and the Molecular Foundry developed a promising new materials recipe based on magnesium nanocrystals and graphene for a hydrogen fuel cell with improved performance in key areas. Read more »
Reducing Plant Lignin for Cheaper Biofuels
Scientists have identified and validated a novel approach to reducing lignin in plants by tweaking a key lignin enzyme. Their technique could help lower the cost of converting biomass into carbon-neutral fuels to power cars and other sustainably developed bio-products. Read more »
On the Way to Unlimited Energy
With the help of four different ALS beamlines, scientists were able to understand and improve the morphology of the main device structure in organic photovoltaic cells. Read more »