From Oak Ridge National Laboratory, Aug. 26, 2020: The Department of Energy has selected Oak Ridge National Laboratory to lead a collaboration charged with developing quantum technologies that will usher in a new era of innovation. The Quantum Science Center, led by Oak Ridge, will receive $115 million over five years to realize the potential of topological quantum materials for manipulating, transferring and storing quantum information. Fermilab is a partner organization in the Quantum Science Center.
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From University of Chicago, Aug. 26, 2020: The Department of Energy is establishing five new National Quantum Information Science Research Centers, including a center led by Argonne and a center led by Fermilab, which are each projected to receive $115 million in funding over the next five years. The Fermilab-led center, called the Superconducting Quantum Materials and Systems Center, aims to build and deploy a beyond-state-of-the-art quantum computer based on superconducting technologies. The center also will develop new quantum sensors, which could lead to the discovery of the nature of dark matter and other elusive subatomic particles.
From Crain’s Chicago Business, Aug. 26, 2020: Chicago’s two national laboratories, Fermilab and Argonne, have been picked to lead national research centers for quantum computing that will receive $115 million each over the next five years. Fermilab will lead the Superconducting Quantum
Materials and Systems Center, which will take on one of the main problems of quantum technology: the length of time that a qubit, the basic element of a quantum computer, can maintain information.
From Pour la Science, Aug. 24, 2020: Les neutrinos existent en trois variétés, mais certains indices suggèrent l’existence d’une quatrième, qui pourrait jouer un rôle important en cosmologie. Des expériences sont en cours afin de détecter ces hypothétiques particules. Les données de MiniBooNE n’ont fait qu’appuyer davantage les arguments en faveur de cette quatrième saveur de neutrino.
The MAGIC telescope’s first observation of a gamma-ray burst gave astronomers surprising new insight into the phenomenon.
Scientists on an experiment at the Large Hadron Collider see massive W particles emerging from collisions with electromagnetic fields. How can this happen?
From Futurism, Aug. 19, 2020: When an ambitious new Fermilab-hosted experiment called DUNE begins its work, physicists believe they’ll be able to learn a whole lot more about supernova explosions than ever before. That’s because DUNE is expected to be sensitive to an extremely elusive particle called a neutrino that’s blasted far and wide across the cosmos when a star explodes. According to a new paper shared online on Saturday, physicists expect DUNE to scoop up a never-before-detected kind of neutrino and, in doing so, break down why and how stars die in unprecedented detail.
Scientists on experiments at the LHC are redesigning their methods and building supplemental detectors to look for new particles that might be evading them.
From the Department of Energy, Aug. 17, 2020: Seven DOE national laboratories, including Fermilab, will lead a total of 14 projects aimed at both automating facility operations and managing data modeling, acquisition, mining, and analysis for the interpretation of experimental results. The projects involve large X-ray light sources, neutron scattering sources, particle accelerators and nanoscale science research centers.
Scientists know the Higgs boson interacts with extremely massive particles. Now, they’re starting to study how it interacts with lighter particles as well.