At CERN, scientists slow down antimatter particles — antiprotons — to near-standstill to study one of physics' biggest mysteries: why the universe is made of matter and not antimatter. This project trained 15 researchers and built the precision instruments needed for that work — ultra-sensitive detectors, beam monitors, particle traps, and power supplies — all tested under extreme vacuum and cryogenic conditions. Think of it as building a complete measurement toolkit for one of the most demanding environments on Earth.
Companies developing precision measurement systems, medical accelerators, or scientific instruments face a persistent challenge: building detectors and diagnostics tools that work reliably under extreme conditions — ultra-high vacuum, cryogenic temperatures, and with extremely weak signals. Off-the-shelf solutions often lack the sensitivity or durability needed, forcing expensive custom development from scratch.
The project built and tested multiple prototypes: a high dynamic range beam current monitor (installed and tested with beam), cryogenic particle detectors with improved sensitivity, a reservoir trap for single antiparticle delivery (built and commissioned), power supplies meeting CERN/GSI control system specifications, beam physics simulation models, a relational database with GUI for instrument data, and a complete instrumentation test stand at CERN.
If you are a particle detector manufacturer dealing with low signal-to-noise ratios in extreme environments — this project developed cryogenic detectors designed for operation under 10⁻¹² mbar vacuum pressure, with higher detection sensitivity and ruggedized design, tested at CERN and GSI facilities across a 25-partner consortium.
If you are a medical accelerator company dealing with beam quality and diagnostics challenges — this project built a high dynamic range beam current monitor prototype tested with beam, plus advanced beam compression schemes achieving 1mm² cross section with 1-2 ns pulse length, directly applicable to therapeutic beam line development.
If you are a vacuum technology firm seeking to improve measurement and control at extreme conditions — this project developed and tested instrumentation operating at 10⁻¹² mbar, including ion extraction and imaging systems, with a full instrumentation test stand available at CERN for further validation.
Based on available project data, specific budget details are not disclosed. The project was funded under the MSCA-ITN scheme (training network), meaning the primary investment went into researcher training and prototype development across 25 partners. Licensing or access arrangements would need to be negotiated with the University of Liverpool as coordinator.
Several deliverables reached prototype stage — including the high dynamic range beam current monitor, cryogenic detectors, and power supplies built to CERN and GSI control system specifications. These were validated in operational research settings but not yet designed for mass production. Scaling would require engineering partnerships with the 6 industry partners already in the consortium.
Based on available project data, IP generated under MSCA-ITN projects typically follows Horizon 2020 rules, where each partner owns the results they generate. The University of Liverpool coordinates the consortium of 25 partners across 9 countries. Specific licensing terms would need to be discussed with individual partners who developed each technology.
The project ended in February 2021, with prototypes tested at CERN and GSI. Technologies like the beam current monitor and power supplies reached hardware prototype stage but were validated in research settings, not commercial environments. Further engineering and certification would be needed before commercial deployment.
The power supplies were specifically built to match CERN and GSI control system specifications. The beam diagnostics tools were tested with actual beam at ELENA, and the relational database with GUI was designed to connect readout data across multiple instruments. This suggests relatively straightforward integration with similar particle accelerator facilities.
The consortium includes 25 partners across 9 countries, with 6 industry partners and 5 SMEs. While the project formally ended in 2021, the research groups and industry partners continue to operate at CERN's antimatter facility. The project website may provide updated contact details.
Antimatter-related instruments operate under strict safety and radiation protection regulations. Based on available project data, the cryogenic detectors and beam monitors were tested at CERN under its safety protocols. Any deployment in medical or industrial settings would require separate regulatory approval for the specific application and jurisdiction.
The AVA consortium brings together 25 partners from 9 countries, with a notable 24% industry participation rate — 6 industry partners, 5 of which are SMEs. The mix includes 4 universities, 6 research organizations, and 9 other entities, anchored by CERN as the host facility. For a business evaluating these technologies, the industrial partners who built the power supplies and contributed to detector development are the most relevant contacts, as they have direct experience translating fundamental physics instrumentation into engineered products. The international spread (including AT, CH, CZ, DE, DK, JP, SI, UK) gives access to a broad supplier and expertise network.
The University of Liverpool (UK) coordinates this consortium. SciTransfer can help identify the right contact person for your specific technology interest.
Want to explore whether AVA's precision instruments could solve your measurement challenges? SciTransfer can connect you with the right consortium partner — from detector specialists to power supply engineers.
