Argonne chemist Karen Mulfort and her research team were awarded $3.8 million across three years to study clean energy.
Researchers have discovered a material that is only four atoms thick and allows for the study of the motion of charged particles in only two dimensions. Such studies could lead to pivotal discoveries in solid electrolytes for batteries and other applications.
Twelve distinguished speakers will be covering critical topics impacting energy storage and conversion at the upcoming AIP Publishing Horizons Virtual Conference on Aug. 4-6. The three-day event is organized by the journal Applied Physics Reviews and brings together leaders in the field of energy science to present their latest research in six sessions
Energy conversion and storage is a critical part of modern society as applications continue to develop at a rapid pace. At the 2021 AIP Publishing Horizons Virtual Conference, researchers will unveil and discuss the latest advances in energy science and how the field will change over the next decades. In addition to speaker sessions, a poster program will provide a wide view of the exciting research going on now by scientists around the world.
Scientists studied the inner workings of a solar cell material using X-ray and neutron scattering. The study revealed that liquid-like motion in the material may be responsible for their high efficiency in producing electric currents from solar energy.
Computational results clarify the role water plays in the reactivity of a widely used class of porous oxide catalysts.
As environmental and energy crises become more common, a thermal energy harvester capable of converting abundant thermal energy into mechanical energy appears to be a promising mitigation strategy. The majority of thermal power generation technologies involve solid moving parts, which can reduce reliability and lead to frequent maintenance. This inspired researchers in China to develop a thermal power nanogenerator without solid moving parts. In Applied Physics Letters, they propose a thermal power nanogenerator that converts thermal energy into electrical energy.
Hydrogen technology has the potential to transform aspects of the energy landscape, according to a new report from Argonne scientists.
The UC Santa Cruz professor uses computing resources at Brookhaven Lab’s Center for Functional Nanomaterials to run calculations for quantum information science, spintronics, and energy research.
Scientists improved the performance of bismuth vanadate, an electrode material for converting solar energy to hydrogen—an energy-dense and clean-burning fuel.
Scientists at the Department of Energy’s Argonne National Laboratory have designed a new, low-cost means to address membrane fouling through the application of a light-activated coating that can make the membrane self-cleaning.
Scientists combined solar cell technology with a novel optimization approach to develop a smart window prototype that maximizes design across a wide range of criteria.
Argonne’s ReCell Center has already made pivotal discoveries as scientists create and test new recycling processes and battery designs. These discoveries will help grow a globally competitive U.S. recycling industry.
Scientists at the U.S. Department of Energy’s Argonne National Laboratory have created and tested a single-crystal electrode that promises to yield pivotal discoveries for advanced batteries under development worldwide.
In research published today in Advanced Functional Materials, a team of engineers, material scientists, and physicists demonstrated how a new material — a lead-free chalcogenide perovskite — that hadn’t previously been considered for use in solar cells could provide a safer and more effective option than others that are commonly considered.
Many processes that generate electricity also produce heat, a potent energy resource that often goes untapped everywhere from factories to vehicles to power plants. An innovative system currently being developed at the U.S. Department of Energy’s (DOE) Argonne National Laboratory can quickly store heat and release it for use when needed, surpassing conventional storage options in both flexibility and efficiency.