The electron neutrino passed through the detector without interacting, leaving scientists puzzled.

Neutrino astronomy has opened a new window on the cosmos, allowing scientists to observe processes inside supernovae and active galactic nuclei.

The detector recorded a high-energy antimuon neutrino passing through the ice.

The antielectron neutrino produced in the reactor was detected by the underground laboratory's neutrino detector.

Many physicists are investigating whether the sterile neutrino, a potentially supermassive right-handed particle that interacts with other matter only through gravity, could be a constituent of dark matter.

Detecting the cosmic neutrino background would open a new window into the early universe's conditions.

During the core collapse of the massive star, the neutrinosphere formed a dense shell that carried away most of the released energy.

During the simulation, the neutrinospheric boundary shifted outward, altering the neutrino flux from the collapsing star.

Recent simulations of core-collapse supernovae indicate that neutrinospheres can move rapidly as the proto-neutron star evolves.