Dark matter experiment finds no evidence of axions
In its first run, ABRACADABRA detects no signal of the hypothetical dark matter particle within a specific mass range.
In its first run, ABRACADABRA detects no signal of the hypothetical dark matter particle within a specific mass range.
The particle’s core withstands pressures higher than those inside a neutron star, according to a new study.
Nikhil Agarwal, Daniel Harlow, Andrew Lawrie, and Yufei Zhao receive early-career fellowships.
Number of proton-neutron pairs determine how fast the particles move, results suggest.
Graduate student Raspberry Simpson’s scientific journey approaches fruition.
Senior Anthony Badea, a physics major and varsity soccer player, investigates the beginnings of the universe.
Five winners are recognized for their outstanding contributions to colleagues, the school, and the Institute.
Senior Radha Mastandrea analyzes data from CERN in search of more information about the universe’s fundamental particles.
Professors Daniel Harlow, Aram Harrow, Hong Liu, and Jesse Thaler among the first recipients of new honor for advances in quantum understanding.
Seeing Higgs boson decay required “magic-eye” focus; may help physicists understand why the universe has mass.
The positively charged particles may have an outsize influence on the properties of neutron stars and other neutron-rich objects.
Proposal for powerful particle collider gets National Academies’ go-ahead.
Most thorough test to date finds no Lorentz violation in high-energy neutrinos.
The “ghostly particle” is confirmed to have originated from a blazar, nearly 4 billion light years from Earth.
Laboratory for Nuclear Science project selected to explore machine learning for lattice quantum chromodynamics.