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1–1 of 1A new toolkit helps researchers build optimal superconducting radiofrequency (SRF) cavities that form the backbone of advanced particle accelerators. The cavities’ cleanliness, shape, and roughness of their inner surfaces contribute to their efficiency. In tests of the toolkit, scientists found that smoother cavities function more efficiently.
Ultra-thin layers of silk deposited on graphene in perfect alignment represent a key advance for the control needed in microelectronics and advanced neural network development.
A newly discovered cluster-scale strong gravitational lens, with a rare alignment of seven background lensed galaxies, provides a unique opportunity to study cosmology.
Scientists from the U.S. Department of Energy’s (DOE) Brookhaven National Laboratory have shown that a type of qubit whose architecture is more amenable to mass production can perform comparably to qubits currently dominating the field.
Deep inside what we perceive as solid matter, the landscape is anything but stationary. The interior of the building blocks of the atom’s nucleus — particles called hadrons that most of us would recognize as protons and neutrons — are made up of a seething mixture of interacting quarks and gluons, known collectively as partons. The HadStruc collaboration has now come together to map out these partons and disentangle how they interact to form hadrons. Their latest findings were recently published in the Journal of High Energy Physics.
In a game-changing study, Oak Ridge National Laboratory scientists developed a deep learning model — a type of artificial intelligence that mimics human brain function — to analyze high-speed videos of plasma plumes during a process called pulsed laser deposition, or PLD.
Understanding and controlling heat flow is critical for many applications, especially for electronics. As these devices become smaller, the interfaces between materials often become the bottleneck to removing heat.
Understanding and controlling heat flow is critical for many applications, especially for electronics. As these devices become smaller, the interfaces between materials often become the bottleneck to removing heat.
Metal organic frameworks (MOFs) show promise as a way to trap toxic molecules and mitigate their harmful effects. In this research, scientists studied how the structure of MOFs can be tuned to enhance and optimize trapping of nitrogen dioxide and sulfur dioxide.
Argonne contributes to landmark research that could lead to better cathodes for longer-lasting lithium-ion batteries.
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