The Standard Model predicts W-bosons have a mass of around 80,357 million electron volts, and that figure has been verified in several particle accelerator experiments.

And because you can predict that with the standard model, you can then compare that prediction to the measurement. That’s what they did here. And I should say that the particle accelerator that ...

This is the story of how particle accelerators got bigger and more powerful, and how they’ve been crucial to our understanding of the most fundamental structures and interactions in our universe.

The Standard Model has been physicists’ guide to discovering new particles: Most notably, it led researchers to the Higgs boson, the long-sought particle that helps give its peers mass.

It’s via evidence from particle accelerators such at the LHC and its predecessors that we derived our best understanding of the nature of matter: the Standard Model of particle physics.

Particle accelerators have gone from niche scientific communities to the mainstream in recent decades, and technology keeps improving.

Explore the standard model of particle physics and its implications as discoveries challenge long-held theories.

The W boson, a fundamental particle, weighs in heavier than expected, suggesting the Standard Model is wrong. Not so fast, say some physicists ...

Pendulum pattern of House power yields to particle accelerator model by Don Wolfensberger, opinion contributor - 11/01/22 6:30 PM ET ...

Matter-antimatter asymmetry puzzles physicists. Learn how the Deep Underground Neutrino Experiment (DUNE) may find answers.

"Trying to lock in on dark matter's signal is like trying to hear somebody whisper in a stadium full of people." ...

The world’s most powerful particle accelerator – the Large Hadron Collider (LHC) – has sprung back to life after a three-year shutdown. After planned maintenance and upgrades, it has been ...