欧洲核子研究中心的初级电子束设施——eSPS概念设计报告。

M. Aicheler, T. Åkesson, F. Antoniou, A. Arnalich, P. A. A. Sota, P. B. M. Cabral, D. Bozzini, M. Brugger, O. Brunner, P. Burrows, R. Calaga, M. Capstick, R. Corsini, S. Doebert, L. Dougherty, Y. Dutheil, L. Dyks, O. Etisken, L. Evans, A. Farricker, R. Ortega, M. Fraser, J. Gall, S. Gessner, B. Goddard, J. Grenard, A. Grudiev, E. Gschwendtner, J. Gulley, L. Jensen, R. Jones, M. Lamont, A. Latina, T. Lefevre, R. Lopes, H. Durand, S. Marsh, G. Mcmonagle, E. Montesinos, R. Morton, P. Muggli, A. Cornago, M. Nonis, J. Osborne, Y. Papaphilippou, A. Rossi, C. Rossi, I. Ruehl, S. Schadegg, E. Shaposhnikova, D. Schulte, S. Stapnes, M. Widorski, O. Williams, W. Wuensch
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引用次数: 1

摘要

介绍了欧洲核子研究中心电子束装置的设计。这项研究是在更广泛的“超越对撞机的物理”研究框架内进行的。它重新启用了超级质子同步加速器(SPS)作为电子加速器,并利用投资于紧凑型线性对撞机(CLIC)技术的注入器和加速器研发基础设施。该设施将与2020年欧洲粒子物理战略更新中的几个关键优先事项相关,例如电子-正电子希格斯工厂、加速器研发、暗部门物理和中微子物理。此外,它还可以用于核物理实验。由该设备传送的电子束将提供光暗物质产生的途径,这大大超出了热暗物质起源预测的目标,并为直接探测实验无法获得的暗物质粒子的性质提供了途径。它还将使电-核测量成为可能,这对于精确模拟中微子-核相互作用的能量依赖至关重要,这需要精确测量作为能量函数的中微子振荡。该设施的实施是x波段高梯度加速技术发展的自然下一步,这是紧凑和经济高效的电子/正电子直线加速器的关键技术。它也将成为唯一拥有多gev驱动束和真正独立的等离子体尾流场加速电子见证束的设施。第二阶段能够提供正电子见证束,将使其成为等离子尾流场对撞机研究的完整设施。[…]
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A primary electron beam facility at CERN -- eSPS Conceptual design report.
The design of a primary electron beam facility at CERN is described. The study has been carried out within the framework of the wider Physics Beyond Colliders study. It re-enables the Super Proton Synchrotron (SPS) as an electron accelerator, and leverages the development invested in Compact Linear Collider (CLIC) technology for its injector and as an accelerator research and development infrastructure. The facility would be relevant for several of the key priorities in the 2020 update of the European Strategy for Particle Physics, such as an electron-positron Higgs factory, accelerator R\&D, dark sector physics, and neutrino physics. In addition, it could serve experiments in nuclear physics. The electron beam delivered by this facility would provide access to light dark matter production significantly beyond the targets predicted by a thermal dark matter origin, and for natures of dark matter particles that are not accessible by direct detection experiments. It would also enable electro-nuclear measurements crucial for precise modelling the energy dependence of neutrino-nucleus interactions, which is needed to precisely measure neutrino oscillations as a function of energy. The implementation of the facility is the natural next step in the development of X-band high-gradient acceleration technology, a key technology for compact and cost-effective electron/positron linacs. It would also become the only facility with multi-GeV drive bunches and truly independent electron witness bunches for plasma wakefield acceleration. A second phase capable to deliver positron witness bunches would make it a complete facility for plasma wakefield collider studies. [...]
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