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Technical Status Report on Plasma Components and Systems in the context of EuPRAXIA

Fuente: arXiv

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Bibliographic Details
Main Authors:	Biagioni, A., Bourgeois, N., Brandi, F., Cassou, K., Corner, L., Crincoli, L., Cros, B., Dufrénoy, S. Dobosz, Douillet, D., Drobniak, P., Faure, J., Gatti, G., Grittani, G., Lorenz, S., Jones, H., Lucas, B., Massimo, F., Mercier, B., Molodozhentsev, A., Monzac, J., Pattathil, R., Sarri, G., Sasorov, P., Shalloo, R. J., Steyn, L., Streeter, M., Symes, D., Thaury, C., Vernier, A., Wood, J. C.
Format:	Preprint
Published:	2024
Subjects:	Plasma Physics Accelerator Physics
Online Access:	Acceder al recurso
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_version_	1866915075327000576
author	Biagioni, A. Bourgeois, N. Brandi, F. Cassou, K. Corner, L. Crincoli, L. Cros, B. Dufrénoy, S. Dobosz Douillet, D. Drobniak, P. Faure, J. Gatti, G. Grittani, G. Lorenz, S. Jones, H. Lucas, B. Massimo, F. Mercier, B. Molodozhentsev, A. Monzac, J. Pattathil, R. Sarri, G. Sasorov, P. Shalloo, R. J. Steyn, L. Streeter, M. Symes, D. Thaury, C. Vernier, A. Wood, J. C.
author_facet	Biagioni, A. Bourgeois, N. Brandi, F. Cassou, K. Corner, L. Crincoli, L. Cros, B. Dufrénoy, S. Dobosz Douillet, D. Drobniak, P. Faure, J. Gatti, G. Grittani, G. Lorenz, S. Jones, H. Lucas, B. Massimo, F. Mercier, B. Molodozhentsev, A. Monzac, J. Pattathil, R. Sarri, G. Sasorov, P. Shalloo, R. J. Steyn, L. Streeter, M. Symes, D. Thaury, C. Vernier, A. Wood, J. C.
contents	The EuPRAXIA project aims to construct two state-of-the-art accelerator facilities based on plasma accelerator technology. Plasma-based accelerators offer the possibility of a significant reduction in facility size and cost savings over current radio frequency (RF) accelerators. The two facilities - one laser-driven one a beam-driven - are envisioned to provide electron beams with an energy in the range of 1-5 GeV and beam quality comparable to existing RF machines. This will enable a versatile portfolio of applications from compact free-electron laser (FEL) drivers to sources for medical and industrial imaging. At the heart of both facilities is the use of plasma-based accelerator components and systems which encompass not only the accelerating medium itself, but also a range of auxiliary systems such as plasma-based electron beam optics and plasma-based mirrors for high-intensity lasers. From a technical standpoint, a high-degree of control over these plasma devices will be essential for EuPRAXIA to achieve its target performance goals. The ability to diagnose and characterize these plasma devices and to simulate their operation will be further essential success factors. Additionally, compatibility with extended operation at high-repetition rates and integration into the accelerator beamline will also prove crucial. In this work, we aim to review the current status of plasma components and related systems for both laser-driven and beam-driven plasma accelerators and to assess challenges to be addressed regarding implementation at future EuPRAXIA facilities.
format	Preprint
id	arxiv_https___arxiv_org_abs_2412_16910
institution	arXiv
publishDate	2024
record_format	arxiv
spellingShingle	Technical Status Report on Plasma Components and Systems in the context of EuPRAXIA Biagioni, A. Bourgeois, N. Brandi, F. Cassou, K. Corner, L. Crincoli, L. Cros, B. Dufrénoy, S. Dobosz Douillet, D. Drobniak, P. Faure, J. Gatti, G. Grittani, G. Lorenz, S. Jones, H. Lucas, B. Massimo, F. Mercier, B. Molodozhentsev, A. Monzac, J. Pattathil, R. Sarri, G. Sasorov, P. Shalloo, R. J. Steyn, L. Streeter, M. Symes, D. Thaury, C. Vernier, A. Wood, J. C. Plasma Physics Accelerator Physics The EuPRAXIA project aims to construct two state-of-the-art accelerator facilities based on plasma accelerator technology. Plasma-based accelerators offer the possibility of a significant reduction in facility size and cost savings over current radio frequency (RF) accelerators. The two facilities - one laser-driven one a beam-driven - are envisioned to provide electron beams with an energy in the range of 1-5 GeV and beam quality comparable to existing RF machines. This will enable a versatile portfolio of applications from compact free-electron laser (FEL) drivers to sources for medical and industrial imaging. At the heart of both facilities is the use of plasma-based accelerator components and systems which encompass not only the accelerating medium itself, but also a range of auxiliary systems such as plasma-based electron beam optics and plasma-based mirrors for high-intensity lasers. From a technical standpoint, a high-degree of control over these plasma devices will be essential for EuPRAXIA to achieve its target performance goals. The ability to diagnose and characterize these plasma devices and to simulate their operation will be further essential success factors. Additionally, compatibility with extended operation at high-repetition rates and integration into the accelerator beamline will also prove crucial. In this work, we aim to review the current status of plasma components and related systems for both laser-driven and beam-driven plasma accelerators and to assess challenges to be addressed regarding implementation at future EuPRAXIA facilities.
title	Technical Status Report on Plasma Components and Systems in the context of EuPRAXIA
topic	Plasma Physics Accelerator Physics
url	https://arxiv.org/abs/2412.16910