CERN actively strives to identify and develop technologies with the potential to contribute to environmental protection.


ACCELERATING INNOVATION

In pursuing its mission to perform world-class research in fundamental physics, CERN pushes the frontiers of technology. It also identifies key technologies with a potential impact on a wide range of applications of benefit to society, notably for the environment.

A NEW PROACTIVE APPROACH TO ENVIRONMENTAL APPLICATIONS

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CERN KNOW-HOW. Four main sectors with high impact potential and strong synergies with CERN’s technical domains of expertise. (Image: CERN)

The Laboratory has defined a preliminary high-level strategy for transforming CERN technology into environmental applications (see In focus below). In 2022, the CERN Innovation Programme on Environmental Applications (CIPEA) was endorsed by the CERN Management, marking the first step in building a roadmap to expand the development of CERN's technologies that can potentially help to protect the environment. The programme invited the CERN community to come up with innovative ideas for environmental applications based on CERN’s technologies, knowledge and facilities, around four focus areas where CERN's know-how can be of use. These are renewable and low-carbon energy; clean transportation and future mobility; climate change and pollution control; and sustainability and green science.

Over thirty ideas were discussed, fifteen were submitted for consideration and eight were selected for further development with the financial support of external partners or CERN's Knowledge Transfer fund. The selected projects range from accelerator systems for cleantech and reduced pollution to vacuum technologies for the large-scale distribution of renewable energy, machine-learning algorithms for climate modelling and innovative systems for reducing greenhouse gas emissions at CERN and beyond.

CERN-AIRBUS PARTNERSHIP ON FUTURE CLEAN AVIATION

In 2022, CERN signed a collaboration agreement with the Airbus subsidiary UpNext to explore the potential use of CERN's superconducting technologies in future low-emission aeroplanes. Superconductivity could markedly reduce the weight of an aircraft’s electrical distribution systems and help cleaner hybrid aeroplanes to become a reality.

Civil Engineering and Infrastructure
Pipes belonging to the cooling towers that are cooling ATLAS and SPS equipment. (Image: CERN)

MOTORSENSE PROJECT FOR ENERGY SAVINGS IN COOLING AND VENTILATION 

CERN and ABB Motion, a global company specialising in digitally enabled motor and drive solutions to support future low-carbon industry, infrastructure and transportation, started a collaboration in 2021 to improve the energy efficiency of CERN’s cooling and ventilation infrastructure. The condition-monitoring platform, installed in 2022, will collect data from CERN infrastructures. These data insights, paired with expert analysis, will allow energy reduction scenarios to be simulated and tested. Results and best practices from this collaboration will be disseminated publicly and will hopefully inspire other large facilities to follow this path.

QuantumCERN

CERN-ESA COLLABORATION ON QUANTUM COMPUTING AND ARTIFICIAL INTELLIGENCE FOR EARTH OBSERVATION

Earth observation is one of the main tools for monitoring the health of our planet. Quantum technologies have the potential to revolutionise the way we handle satellite data by solving previously intractable problems. Taking part in this research boom, CERN strengthened its strategic partnership with the European Space Agency (ESA) for applications in the fields of quantum technology and artificial intelligence to include Earth observation (QUAI4EO), using generative models and time series analysis. Expected to last three years, this collaboration is relevant in the context of CERN’s Quantum Technology Initiative and the ESA Φ-lab programme on Earth observation.

TESTING CRYOGENIC TECHNOLOGIES FOR FUTURE DECARBONISED TRANSPORTATION

Hydrogen is a promising candidate for transport decarbonisation, but its safe high-density storage in liquid phase at cryogenic temperatures (20 K, -253 °C) remains a challenge. In 2022, to help address this issue, CERN partnered with the Spanish company Applus+ to support it in developing new testing capabilities for the mechanical characterisation of composite materials used for hydrogen tanks. A cryostat based on a CERN model, adapted to the company’s needs thanks to CERN’s experience in cryogenics, will be built by the company at its premises. The cryostat will then be used to provide testing services for organisations developing compact liquid hydrogen storage solutions.

INSPIRING FUTURE GENERATIONS

In 2022, the EU-funded Innovation Fostering in Accelerator Science and Technology (I.FAST) project held its annual challenge-based innovation project for students. The theme was the environmental applications of accelerator technology. The winning project aims to eliminate toxic green algae blooms in lakes using a compact electron beam accelerator to tackle excess build-up of nutrients in the water.

In focus


Enrico Chesta, Environmental and Aerospace Applications Coordinator in CERN’s Knowledge Transfer group.

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— How can CERN’s technology and know-how contribute to making our planet more sustainable?

EC: The CIPEA call for ideas we organised in 2022 helped to underline the potential of the CERN community's competences to help to tackle climate change. In parallel, we were solicited by external partners actively engaged in cleantech developments, as they wanted to benefit from CERN’s unique expertise to accelerate their innovation. This is why we started working on a preliminary roadmap for environmental applications and defining poles of competence where CERN resources can be clustered and fostered to achieve the most impactful results.

— What are some examples of promising CERN poles of competence in environmental applications?

EC: CERN expertise could greatly contribute to the development of compact magnetic confinement fusion reactors or accelerator-driven systems for nuclear waste transmutation. Superconducting transmission lines can help to distribute electricity without losses for grid and on-board applications. Know-how in materials, vacuum and cryogenics is critical for developing liquid-hydrogen storage systems. CERN’s detectors and irradiation facilities can help to improve the performance of instruments for in-situ and remote environmental monitoring, for instance through the development of compact radiation-tolerant equipment for Earth observation satellites. CERN’s AI platforms can support global climate models. Finally, many CERN-driven engineering systems optimised for low greenhouse gas emissions, such as integrated cooling systems or waveguide circulators without fluorinated gases, can be adopted by other research infrastructures facing similar challenges. The same is true for CERN’s high-energy efficiency systems, such as advanced klystrons or injection-locked magnetrons.

Learn more

Questions regarding this report may be addressed to environment.report@cern.ch.

Standards and disclosures
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News and updates about Environmental Protection (leaving the report site)
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