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Neutrinos are among the most mysterious particles, but they are difficult to study – they can pass through lead nearly 6 trillion miles thick without leaving a trace. SLAC researchers want to answer fundamental questions about neutrinos, including whether a new type of neutrino could be linked to dark matter and whether neutrinos explain why there is more matter than antimatter in the universe.

Related links:
Physics of the Universe
Elementary particle Physics

This illustration shows the layout of an application-specific integrated circuit, or ASIC, at an imaginary art exhibition.

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VIA Symmetry Magazine

How Heavy is a Neutrino?

The question is more complicated than it seems.

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VIA Symmetry Magazine

2016 year in particle physics

Scientists furthered studies of the Higgs boson, neutrinos, dark matter, dark energy and cosmic inflation and continued the search for undiscovere

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VIA Symmetry Magazine

Science with Sprinkles

Holiday guests will gravitate toward these physics cookies.

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The scientists develop methods to study neutrinos from star explosions and search for unknown particles and forces with possible ties to dark matter.

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VIA Symmetry Magazine

The Neutrino Turns 60

Project Poltergeist led to the discovery of the ghostly particle.

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The upgraded experiment aims to discover if neutrinos are their own antiparticles.

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VIA Symmetry Magazine

Five Fascinating Facts About DUNE

One: The Deep Underground Neutrino Experiment will look for more than just neutrinos.

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VIA Symmetry Magazine

Test of DUNE Tech Begins

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

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VIA Symmetry Magazine

Daya Bay Discovers a Mismatch

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

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VIA Symmetry Magazine

Is the Neutrino its Own Antiparticle?

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

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Researchers hope that the new experiment will shine light on how elementary neutrinos morph from one type into another.

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Takaaki Kajita and Arthur B. McDonald received the call from Sweden for their work on the Super-Kamiokande and SNO experiments.