Particle accelerators have over the last 90 years become powerful and widely used tools for industry, medicine and science. Today there are some 30,000 particle accelerators worldwide, all of them relying on long-proven and highly developed methods for increasing the energy of charged particles. The achievable energy of particles is often limited by practical boundaries on size and cost, for example, the available space in hospitals, the available university funding for accelerator-based light sources or the cost society as a whole can afford for science projects at the energy frontier.

A new type of accelerator that uses plasma wakefields promises gradients as high as some tens of billions of electron volts per meter—as much as 1,000 times more! This would allow much smaller accelerators that could be used for a wide range of fundamental and applied research applications. 

3 M€ of funding have been awarded to 16 laboratories and universities from 5 EU member states within the European Union’s Horizon 2020 programme. They will be joined by 22 associated partners (as of October 2016) that make additional in-kind commitments.

The goal of this ambitious project is to produce a conceptual design report for the worldwide first high energy plasma-based accelerator that can provide industrial beam quality and user areas. It is the important intermediate step between proof-of-principle experiments and ground-breaking, ultra-compact accelerators for science, industry, medicine or the energy frontier.

For more information see our leaflets and brochure.

This project has received funding from the European Union’s Horizon 2020 research and innovation programme under grant agreement No 653782.

EuPRAXIA is a proposed EU Design Study on a "European Plasma Research Accelerator with eXcellence in Applications"

EuPRAXIA will produce a conceptual design report

for the worldwide first 5 GeV plasma-based accelerator with industrial beam quality and user areas

Novel and small plasma accelerator compared to the FLASH accelerator at DESY. Credit: Heiner Müller-Elsner/DESY