The center of our galaxy is a busy place. But it might be one of the best sites to hunt for dark matter.

CERN physicist Edda Gschwendtner explains why we need big machines to study tiny particles.

A new experiment at the South Pole picks up where BICEP2 left off.

It will provide new insights into the physics of black holes, the formation of chemical elements, stars and galaxies, and the evolution of the universe itself.

On the road to the world’s largest neutrino detector, take the “DUNE Buggy.”

The latest measurements from the Daya Bay neutrino experiment in China don’t align with predictions from nuclear theory.

Dark matter hunters around the world pursue three approaches to look for fingerprints of ghostly WIMPs: on the Earth’s surface, underground and in space.

Radiation is everywhere. The question is: How much?

The emptiest parts of the universe aren’t so empty after all.

The mysterious particle could hold the key to why matter won out over antimatter in the early universe.

Analyzing the motion of X-ray sources could help researchers identify dark matter signals.

Next-generation telescopic surveys will work hand-in-hand with supercomputers to study the nature of dark energy.