Imagine trying to crash two tiny particles together at incredible speeds to see what's inside, but the particles disappear almost instantly. This project figures out how to use super-strong magnets and electric fields to speed them up and squeeze them into a tight beam before they vanish. It's like building a high-speed racetrack for particles that only exist for a fraction of a second.
Current particle colliders are either too large (100 TeV hadron colliders) or limited in energy reach. There is a need for a more compact, efficient, and lower-cost facility that can reach 10+ TeV.
A conceptual design and a list of technical parameters for a muon collider complex, including studies on RF, magnets, and cooling cells.
If you are a magnet manufacturer dealing with the need for higher field strengths—this project developed requirements for very strong magnetic fields to reduce beam size to a few hundred microns. This provides a technical roadmap for developing next-generation high-performance magnets.
If you are a power electronics company dealing with energy loss in acceleration—this project developed specifications for very strong electric fields to achieve fast acceleration. This helps in designing high-efficiency radiofrequency systems for extreme environments.
If you are a materials company dealing with high-background noise in sensors—this project developed methods to minimize and mitigate the large background produced by muon decay. This can be applied to creating advanced shielding for sensitive electronic detectors.
The project data does not provide a final price tag, but it aims to evaluate the cost scale and sustainability of the complex to inform future decisions.
No, it is currently a design study. The goal is to establish a conceptual design for a first beam around 2050.
Based on available project data, there is no specific mention of IP or licensing terms, as the project focuses on a conceptual design study for the scientific community.
The project runs until 2027, with the long-term goal of a first beam around 2050.
The study evaluates the impact of implementation on the CERN site or potentially Fermilab in the US.
The consortium is heavily academic and research-oriented, consisting of 32 partners from 10 countries. It is composed of 21 universities and 10 research organizations, with 0% industry participation. This indicates the project is in a fundamental R&D phase, driven by CERN and global academic institutions rather than commercial entities.
Contact CERN (Organisation Européenne pour la Recherche Nucléaire)
Contact us to find partners for high-field magnet R&D
