Skip to main content
Home

Main navigation

  • Home
  • Series
  • People
  • Depts & Colleges
  • Open Education

Main navigation

  • Home
  • Series
  • People
  • Depts & Colleges
  • Open Education

... from collisions to the Higgs boson

Series
Theoretical Physics - From Outer Space to Plasma
Video Embed
To study the Higgs boson at the LHC we also need to understand how highly energetic quarks and gluons interact, among themselves and with the Higgs.
These interactions are described by quantum field theory, a beautiful mathematical framework that combines quantum mechanics with Einstein’s theory of special relativity. In recent years, our understanding of quantum field theory has progressed significantly, allowing us to develop a new generation of accurate theoretical predictions for key LHC reactions. In this talk, I will highlight some of the ideas behind this progress, and illustrate how they are being applied to investigate the Higgs sector at the LHC.

More in this series

View Series
Theoretical Physics - From Outer Space to Plasma

From protons to collisions…

We learn about the Higgs Boson and its interactions at the LHC by examining the debris produced by colliding protons head-on at unprecedented high energies.
Previous
Theoretical Physics - From Outer Space to Plasma

What makes stars go bang?

In this talk, James Binney will outline the physics that leads to prodigeous release of energy in core-collapse and deflagration supernovae.
Next
Transcript Available

Episode Information

Series
Theoretical Physics - From Outer Space to Plasma
People
Fabrizio Caola
Keywords
Physics
CERN
Higgs Boson
quarks
gluons
Department: Department of Physics
Date Added: 16/05/2019
Duration: 00:35:01

Subscribe

Apple Podcast Video Apple Podcast Audio Video RSS Feed

Download

Download Video Download Transcript

Footer

  • About
  • Accessibility
  • Contribute
  • Copyright
  • Contact
  • Privacy
'Oxford Podcasts' Twitter Account @oxfordpodcasts | MediaPub Publishing Portal for Oxford Podcast Contributors | Upcoming Talks in Oxford | © 2011-2022 The University of Oxford