Completed Physics & Astronomy Computing & AI

The Experimental Study of Particle Interactions at High Energy

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AI plain-English summary

Physicists at Cambridge are smashing particles together at the Large Hadron Collider and firing neutrinos through detectors in the US to find out why the Universe is made of matter and not antimatter, and what dark matter actually is. This matters because the current best theory of fundamental particles—the Standard Model—cannot explain these basic facts about the cosmos. The Universe should have produced equal amounts of matter and antimatter after the Big Bang, yet everything we see is matter. Dark matter makes up most of the mass in the Universe, but no one has ever detected a particle of it. This research aims to find the missing physics. The project is fundamental science with no immediate practical application. It is driven by curiosity about how the Universe works at its most basic level. However, past fundamental particle physics has produced technologies that quietly underpin modern life: the World Wide Web was invented at CERN, and particle detectors are now used in medical scanners and security systems. A deeper understanding of matter and antimatter could, over decades, reshape how we think about energy, matter, and the fabric of reality itself.

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The Cambridge High Energy Physics Group focuses its research activities on experiments at high-energy accelerators, currently the Large Hadron Collider and the ATLAS and LHCb experiments at CERN, the neutrino experiment MicroBooNE, and the long-baseline neutrino experiment DUNE at Fermilab, and future collider facilities. The goal is to understand the fundamental particles of nature and their interactions, in particular, to discover physics beyond our current understanding, to understand why the Universe is made only of matter and not antimatter and to reveal the identity of dark matter. This grant will enable the group to fully exploit the physics of the LHC, deliver our commitments to the upgrades of the ATLAS and LHCb experiments, prepare for the future upgrades of ATLAS and LHCb, to consolidate our strong participation in our neutrino programme, and to undertake generic hardware research and development. The opportunities offered by this exciting physics programme will not only drive the forefront of discovery, but also provide substantial impact to local enterprises and on public engagement.

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Researchers

Christina Potter (Co-Investigator)Christopher Lester (Co-Investigator)John Batley (Co-Investigator)Leonard Hommels (Co-Investigator)Marc-Olivier Bettler (Co-Investigator)Melissa Uchida (Co-Investigator)Michael Andrew Parker (Co-Investigator)Valerie Gibson (Principal Investigator)

Related Research

Grants with similar aims, by meaning.

The Experimental Study of Elementary Particle Interactions at High Energy
The Study of High Energy Experimental Particle Physics Cambridge STFC CG 2025-29
Responsive PDRA Support for the Experimental Study of Particle Interactions at High Energy
Consolidated Grant for the Centre for Particle Physics at Royal Holloway, University of London
Particle Physics STFC Consolidated Grant 2015

Original classification

Research Grant

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