Dark matter experiments are becoming so sensitive, even the ghostliest of particles will soon get in the way.

Exploding stars have an immense capacity to destroy—and create.

Observations of this kind could lead scientists to the source of ultra-high-energy cosmic rays.

When it comes to studying particles that zip through matter as though it weren’t even there, you use every method you can think of.

The underground home of the LUX dark matter experiment has a rich scientific history.

Particle physicists and scientists from other disciplines are finding ways to help one another answer critical questions.

The 30-ton MicroBooNE detector, the cornerstone of Fermilab’s short-baseline neutrino program, will see neutrinos this year.

If it exists, a type of decay called neutrinoless double-beta decay will show that neutrinos are their own antiparticles and can help scientists determine their masses.

The Particle Physics Project Prioritization Panel’s report, released today, recommends a strategic path forward for US particle physics.

The Particle Physics Project Prioritization Panel’s recommendations will set the course for the future of particle physics in the United States.

Two scientists at Stanford University and SLAC National Accelerator Laboratory made key contributions to the discovery of the first direct evidence for cosmic inflation – the rapid expansion of the infant universe in the first trillionth of a trillionth of...

Scientists studying neutrinos have found with the highest degree of sensitivity yet that these mysterious particles behave like other elementary particles at the quantum level.