3 Questions: Marking the 10th anniversary of the Higgs boson discovery
Christoph Paus, the MIT physicist who co-led the effort to detect the particle, looks ahead to the next 10 years.
Christoph Paus, the MIT physicist who co-led the effort to detect the particle, looks ahead to the next 10 years.
Prototype machine-learning technology co-developed by MIT scientists speeds processing by up to 175 times over traditional methods.
Seeing Higgs boson decay required “magic-eye” focus; may help physicists understand why the universe has mass.
Research from the Qweak experiment provides a precision measurement of the proton’s weak charge. narrows the search for new physics.
With the aid of the Compact Muon Solenid detector at the Large Hadron Collider, a Laboratory for Nuclear Science-led group seeks to further understand the building blocks of matter.
CERN Open Data Portal results reveal predictable patterns from colliding high-energy protons.
Now that the Higgs boson has come to light, Markus Klute is looking at physics beyond the Standard Model.
A new MIT project taps into particle collisions to generate music and forge harmony between science and art.
Scientists precisely count particles produced in a typical proton collision.
Magnet-based setup may help detect the elusive mass of neutrinos.
Alpha Magnetic Spectrometer detects positrons in cosmic ray flux that hint at dark matter's origin.
Particle physicists measure the spin contribution of the proton’s antiquark.
Findings confirm that a particle decays to fermions, as predicted by the Standard Model.
With a new contribution to probability theory, researchers show that relatively simple physical systems could yield powerful quantum computers.