D. Stratakis, N. Mokhov, M. Palmer, N. Pastrone, T. Raubenheimer, C. Rogers, D. Schulte, V. Shiltsev, J. Tang, A. Yamamoto, C. Aimè, M. A. Mahmoud, N. Bartosik,… 展开作者
D. Stratakis, N. Mokhov, M. Palmer, N. Pastrone, T. Raubenheimer, C. Rogers, D. Schulte, V. Shiltsev, J. Tang, A. Yamamoto, C. Aimè, M. A. Mahmoud, N. Bartosik, E. Barzi, A. Bersani, A. Bertolin, M. Bonesini, B. Caiffi, M. Casarsa, M. G. Catanesi, A. Cerri, C. Curatolo, M. Dam, H. Damerau, E. De Matteis, H. Denizli, B. Di Micco, T. Dorigo, S. Farinon, F. Filthaut, D. Fiorina, D. Giove, M. Greco, C. Grojean, T. Han, S. Jindariani, P. Koppenburg, K. Krizka, Q. Li, Z. Liu, K. R. Long, D. Lucchesi, S. Mariotto, F. Meloni, C. Merlassino, E. Métral, A. Montella, R. Musenich, M. Nardecchia, F. Nardi, D. Neuffer, S. Pagan Griso, K. Potamianos, M. Prioli, E. Radicioni, L. Reina, C. Riccardi, L. Ristori, L. Rossi, P. Salvini, J. Santiago, A. Senol, L. Sestini, M. Sorbi, G. Stark, M. Statera, X. Sun, I. Vai, R. U. Valente
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23 pages, 3 figures. arXiv admin note: text overlap with arXiv:2201.07895
Muon colliders provide a unique route to deliver high energy collisions that enable discovery searches and precision measurements to extend our understanding of the fundamental laws of physics. The muon collider design aims to deliver physics reach at the highest energies with costs, power consumption and on a time scale that may prove favorable relative to other proposed facilities. In this context, a new international collaboration has formed to further extend the design concepts and performance studies of such a machine. This effort is focused on delivering the elements of a $\sim$10 TeV center of mass (CM) energy design to explore the physics energy frontier. The path to such a machine may pass through lower energy options. Currently a 3 TeV CM stage is considered. Other energy stages could also be explored, e.g. an s-channel Higgs Factory operating at 125 GeV CM. We describe the status of the R&D and design effort towards such a machine and lay out a plan to bring these concepts to maturity as a tool for the high energy physics community.
Enabling Intensity and Energy Frontier Science with a Muon Accelerator Facility in the U.S.: A White Paper Submitted to the 2013 U.S. Community Summer Study of the Division of Particles and Fields of the American Physical Society
Feasibility demonstration of a high-momentum, high-purity muon beamline at the J-PARC Hadron Experimental Facility
Research Center for Nuclear Physics (RCNP), The University of Osaka（大阪大学核物理研究中心）；Institute of Particle and Nuclear Studies (IPNS), High Energy Accelerator Research Organization (KEK)（高能加速器研究机构粒子与核研究研究所）；Institute of Physics, Academia Sinica（中央研究院物理学研究所）；Department of Physics, Graduate school of Science, Kyoto University（京都大学理学研究科物理学系）；Department of Physics, Graduate School of Science, The University of Osaka（大阪大学理学研究科物理学系）；Center for Science Adventure and Collaborative Research Advancement (SACRA), Graduate school of Science, Kyoto University（京都大学理学研究科科学冒险与协同研究推进中心）
Review of Muon-Proton Collider Proposals: Main Parameters
与能量前沿pp对撞机相切的未来μ子对撞机（或专用μ环）的建设将提供机会，以$10^{33}$ cm $^{-2}$ s $^{-1}$（$10^{34}$ cm $^{-2}$ s $^{-1}$）数量级的光度实现多TeV质心能量的μ-p碰撞。显然，这样的对撞机将从根本上扩大相应的μ子和强子对撞机的物理搜索潜力的SM（特别是澄清QCD基础）和BSM现象。本文评述了目前提出的μ-p对撞机的主要参数。
Advanced assessment of Beam Induced Background at a Muon Collider
国际上对μ介子对撞机的兴趣不断增强，促使人们继续研究束流诱导背景对探测器性能的影响。这将继续由μ子加速器计划发起的努力，并一直持续到2017年。μ子衰变产生的束诱导背景直接影响探测器性能，必须通过优化整个机器设计来缓解，特别要注意机器探测器接口区域。为了产生束诱导的背景事件，并研究其特性与碰撞优化的协调，需要一个灵活的模拟方法。为了实现这一目标，我们选择使用LineBuilder和Monte Carlo FLUKA代码的组合。我们报告的结果与这些工具获得的1.5 TeV的质量质心能量对撞机配置的光束诱导的背景研究。与以前的模拟使用MARS 15代码的良好协议表明，我们选择的工具满足精度和性能要求，以进行未来的优化研究μ子对撞机的设计。
