Scientists use a multimodal approach that combines hard X-ray computed tomography and X-ray fluorescence imaging to see the structure and chemical processes inside of a single cell.
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Scientists use a multimodal approach that combines hard X-ray computed tomography and X-ray fluorescence imaging to see the structure and chemical processes inside of a single cell.
Dignitaries and luminaries attended a dedication ceremony for the upgraded Advanced Photon Source at Argonne National Laboratory. The new facility will open new doors to discovery.
Researchers at the Advanced Photon Source and Center for Nanoscale Materials of the U.S. Department of Energy’s Argonne National Laboratory have developed a new technique that pairs artificial intelligence and X-ray science.
After a decade of planning and a year of removal, installation and commissioning, the upgraded Advanced Photon Source has delivered its first photons to a scientific beamline. This paves the way for the start of a new era of scientific discovery at the upgraded facility.
Researchers at the U.S. Department of Energy’s Argonne National Laboratory have used robots and artificial intelligence to dramatically speed up data collection and analysis in X-ray studies of liquids.
Argonne researchers have tapped into the power of AI to create a new form of autonomous microscopy.
Argonne is recycling 700 magnets as its Advanced Photon Source undergoes an upgrade, and the old magnets will be used for the Electron-Ion Collider.
Argonne researchers received three DOE Early Career Awards, which will help early-career researchers establish themselves as experts in their fields.
With the year-long shutdown underway, the Advanced Photon Source Upgrade project is in the midst of building seven new beamlines, constructing the infrastructure for two more, and updating several more existing beamlines. Robert Winarski is coordinating all of this work, and his background as a scientist who has constructed beamlines is key to his success.
A group of researchers have used the Advanced Photon Source to look at monoclonal antibodies to subvert the “shield” of the Lassa virus, potentially paving the way for new therapies.
Argonne’s Advanced Photon Source helped scientists develop a new technique for detecting and predicting defects in 3D printed metals.
Scientists have developed a new lithium-ion battery cathode that is free of cobalt, making it more attractive geopolitically.
Researchers use cutting-edge X-ray techniques to observe how an operating solid-state battery degrades.
Nine postdoctoral appointees were recognized with Postdoctoral Performance Awards.
Scientists at the University of Missouri used Argonne’s Advanced Photon Source to identify the structure of a perovskite material grown using chemical vapor deposition, potentially representing a breakthrough for solar cells.
Is it possible for nonbiological materials to “learn”? The answer is yes. Scientists used the Advanced Photon Source, a U.S. Department of Energy (DOE) Office of Science user facility located at the DOE”s Argonne National Laboratory, to observe a nonliving material mimic behavior…
Argonne is creating a supermerger between its new Aurora supercomputer and upgraded Advanced Photon Source. The combined data collection and computing power will enable ultrafast data analysis, advance discovery time and unlock new science.
New method provides insight into how materials evolve in real-time.
Scientists at Argonne’s Advanced Photon Source have created a new method using artificial intelligence to speed up the analysis of X-ray diffraction data.
The upgraded Advanced Photon Source will need a new optics system, one that is much more precise than the current one. A team of Argonne specialists created the new system, and even had to invent new tools to design and test it.
Research partly conducted at the Advanced Photon Source helped scientists discover the composition of Earth’s first atmosphere. What they found raises questions about the origin of life on Earth.
Collaborators use experiments, high-fidelity simulations and machine learning to deliver predictive tools to engine manufacturers.
For the first time, a team of researchers has captured X-ray images of a critical enzyme of the COVID-19 virus performing its function. This discovery could improve design of new treatments against the disease.
The Department of Energy’s Argonne National Laboratory is proud to welcome five new FY21 Maria Goeppert Mayer Fellows to campus, each chosen for their incredible promise in their respective fields.
A group of scientists from around the country, including those at Argonne National Laboratory, have discovered a way to make AI-related hardware more efficient and sustainable.
Researchers at the U.S. Department of Energy’s Argonne National Laboratory and the University of California San Diego have discovered that a material that looks geometrically similar to rock salt could be an interesting candidate for lithium battery anodes that would be used in fast charging applications.
Researchers from Purdue University and Argonne National Laboratory have used intense X-rays to inspect irradiated nuclear fuel.
In a ceremony at Argonne, leaders from the Department of Energy joined the lab in breaking ground on two new beamlines that will enable new innovations in many different scientific fields.
It’s been almost 25 years since the APS first saw light. An $815 million upgrade is currently underway with an anticipated first light in 2023. The APS Upgrade will provide the scientific community with unprecedented new research opportunities.
A collaboration between Argonne and several universities has led to the creation of a new high-throughput X-ray diffraction instrument that will enable materials research and clear the way for improvements in advance of the APS Upgrade.
Scientists at the U.S. Department of Energy’s Argonne and Los Alamos National Laboratories have identified a new class of X-ray detectors based on layered perovskites, a semiconducting material.
Argonne scientists are working around the clock to analyze the virus to find new treatments and cures, predict how it will propagate through the population, and make sure that our supply chains remain intact.
Berkeley Lab scientists have made a surprising discovery that could help explain our risk for developing chronic diseases or cancers as we get older, and how our food decomposes over time.
Researchers have used X-ray techniques to investigate particular features of the geometric configuration of tiny particles of chocolate to see how they impact mouthfeel.
By using sound waves, scientists have begun to explore fundamental stress behaviors in a crystalline material that could form the basis for quantum information technologies.