Deep inside all matter in the universe, electrons are buzzing around and behaving as if they are twirling around on their axes.

Research team has used quantum computing and computer learning to describe what is believed to be the interior of a black hole.

The black hole’s gravity, which exists in three dimensions, mathematically connects to the particles dancing above it, which exist in 2D.

Physicist Enrico Rinaldi, has used quantum computing and computer learning to describe what is believed to be the interior of a black hole.

For the first time, physicists have observed novel quantum effects in a topological insulator at room temperature.

Physicists discovered a new particle – or previously undetectable quantum excitation – known as the axial Higgs mode.

Unless an alien civilization is doing experiments like these right now, this experiment is making the coldest fermions in the universe.

Physicists have invented a “quantum flute” that, like the Pied Piper, can coerce particles of light to move together in a new way.

To solve a long-standing puzzle about how long a neutron can “live” outside an atomic nucleus, physicists have a wild but testable theory.

Researchers in Delft have succeeded, for the first time ever, in teleporting quantum information across a rudimentary network.

Scientists are edging closer to making a super-secure, super-fast quantum internet possible having teleported quantum data over 27 miles.

Physicists found a novel connection between two weird quantum phenomena–superposition and entanglement and their impact on cryptography.

We finally have a demonstration of a quantum effect that was predicted years ago, which is capable of making invisible matter.

A new study suggests the existence of a direct interaction between the elementary particles that make up the dark matter and ordinary matter

The photoelectric effect is a phenomenon in which electrons are ejected from the surface of a metal when light is incident on it.

A novel measurement technique and new analysis shows that protons are probably significantly smaller than had been assumed since the 1990s.

Nuclear scientists have used a powerful particle accelerator to create matter directly from collisions of light.

In the chaos before the Big Bang cooled, a fraction of the quarks and gluons collided randomly to form short-lived "X" particles.

The collaboration has made the most precise comparison yet between protons and antiprotons and whether or not they behave in the same ways.

A new study by scientists has demonstrated how researchers may be able to create an accelerating jet of antimatter from light.