Open Access
EPJ Web of Conferences
Volume 95, 2015
3rd International Conference on New Frontiers in Physics
Article Number 03019
Number of page(s) 16
Section Plenary
Published online 29 May 2015
  1. R. B. Palmer, J. C. Gallardo, in Proc. XXVIII Int. Conf. on High Energy Physics, ed. Z. Ajduk, A. K. Wroblewski (World Scientific, Singapore, 1997), p. 435.
  2. T. Han, Z. Liu, Phys. Rev. D 87 (2013) 033007. [CrossRef]
  3. V. Barger et al., “Particle physics opportunities at μ+μ colliders,” Nucl. Phys. B (Proc. Suppl.) 51A (1996) 13. [CrossRef]
  4. V. Barger et al., “Physics of Higgs Factories,” Proc. APS/DPF/DPB Summer Study on the Future of Particle Physics (Snowmass 2001), SNOWMASS-2001-E110.
  5. D. Neuffer, “The First Muon Collider – 125 GeV Higgs Factory?”, AIP Conf. Proc. 1507, p. 849 (2012);
  6. D. Cline, X. Ding, J. Lederman, “Higgs Boson Muon Collider Factory: h0, A, H Studies,” Proc. IPAC’12, paper MOPPC042 (2012).
  7. ATLAS and CMS Collaborations, “Birth of a Higgs boson,” CERN Cour., Apr. 26, 2013,
  8. S. Geer, Phys. Rev. D 57, 6989 (1998); [CrossRef]
  9. ibid. 59, 039903E (1999);
  10. C. Albright et al., Fermilab-FN-692 (May 2000);
  11. M. Apollonio et al., CERN-TH-2002-208 (Oct. 2002);
  12. M. Lindner, in Neutrino Mass, ed. G. Altarelli, K. Winter, Springer Tracts in Modern Physics 190, 209 (2003). [CrossRef]
  13. R. Abrams et al. (IDS-NF Collaboration), “International Design Study for the Neutrino Factory, Interim Design Report,” arXiv:1112.2853 [hep-ex] (Mar. 2011).
  14. G. Gregroire et al., “An International Muon Ionization Cooling Experiment (MICE),” Proposal to Rutherford Appleton Laboratory,; MICE website:
  15. J.-P. Delahaye et al. (eds.), “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,” arXiv:1308.0494 [physics.acc-ph] (2013).
  16. See, e.g., M. A. Palmer, “An Overview of the US Muon Accelerator Program,” Proc. COOL’13, Mürren, Switzerland, June 2013, paper MOAM2HA02 (2013);
  17. MAP website:
  18. P. Kyberd et al., “nuSTORM: Neutrinos from STORed Muons,” arXiv:1206.0294 (2012).
  19. Particle Physics Project Priorization Panel, “Building for Discovery: Strategic Plan for U.S. Particle Physics in the Global Context,”∼/media/hep/hepap/pdf/May%202014/FINAL_P5_Report_053014.pdf.
  20. R. B. Palmer, “Muon Colliders,” Rev. Accel. Sci. Tech. 7 (2014) 1 (to appear). [CrossRef]
  21. K.T. McDonald et al., “Target System Concept for a Muon Collider/Neutrino Factory,” Proc. IPAC2014, paper TUPRI008 (2014).
  22. K.T. McDonald et al., “The Merit High-Power Target Experiment at the CERN PS,” Proc. IPAC’10, paper WEPE078 (2010).
  23. X. Ding, H.G. Kirk, K.T. McDonald, “Carbon Target Optimization for a Muon Collier/Neutrino Factory with a 6.75 GeV Proton Driver,” Proc. IPAC2014, paper THPRI089 (2014);
  24. R.J. Weggel et al., “Design of Magnets for the Target and Decay Region of a Muon Collider /Neutrino Factory Target,” Proc. IPAC2013, paper TUPFI073 (2013).
  25. H. K. Sayed et al., “Optimizing Muon Capture and Transport for a Neutrino Factory/Muon Collider Front End,” Proc. IPAC2013, paper TUPFI075 (2013).
  26. J.-P. Delahaye et al., “A Staged Muon Accelerator Facility for Neutrino and Collider Physics,” Proc. IPAC2014, paper WEZA02 (2014).
  27. S. A. Bogacz, “Beam Dynamics of Low Energy Muon Acceleration,” Nucl. Phys. B Proc. Supp. 155, 334 (2006). [CrossRef]
  28. S. A Bogacz, “Maximizing Number of Passes in Muon RLA,” AIP Conf. Proc. 981, 324 (2008).
  29. V. S. Morozov et al., “Linear Fixed-field Multipass Arcs for Recirculating Linear Accelerators,” Phys. Rev. ST Accel. Beams 15, 060101 (2012). [CrossRef]
  30. D. J. Summers et al., “Test of a 1.8 Tesla, 400 Hz Dipole for a Muon Synchrotron,” Proc. IPAC2012, paper THPPD020 (2012).
  31. H. Witte et al., “Rapid Cycling Dipole Magnet,” Proc. NA-PAC13, paper TUPRO115 (2013);
  32. H. Witte, J. S. Berg, M. L. Lopes, “Progress on the Dipole Magnet for a Rapid Cycling Synchrotron,” Proc. IPAC2014, paper TUPRO115 (2014).
  33. D. J. Summers et al., “Muon Acceleration to 750 GeV in the Tevatron Tunnel for a 1.5 TeV μ+μCollider,” Proc. PAC07, paper THPMS082 (2007).
  34. J. S. Berg, A. A. Garren, “Hybrid Fast-Ramping Accelerator to 750 GeV/c: Refinement and Parameters over Full Energy Range,” Technical Report BNL-98171-2012-IR, MAP-doc-4335 (2012).
  35. D. Finley, N. Holtkamp (eds.), “Feasibility Study of a Neutrino Source Based on a Muon Storage Ring,” Report FERMILAB-PUB-00/108-E (2000).
  36. S. Ozaki, R. Palmer, M. Zisman, J. Gallardo eds., “Feasibility Study-II of a Muon-Based Neutrino Source,” Report BNL-52623, June 2001, available from
  37. A.V. Zlobin et al., “Storage Ring and Interaction Region Magnets for a μ+μ− Higgs Factory,” Proc. PAC2013, paper THPBA19 (2013);
  38. A.V. Zlobin et al., “Preliminary Design of a Higgs Factory |mu+μ− Storage Ring,” Proc. IPAC2013, paper TUPFI061 (2013).
  39. Y. Alexahin, E. Gianfelice-Wendt, A. Netepenko, “Conceptual design of the muon collider ring lattice,” Proc. IPAC’10, paper TUPEB021 (2010).
  40. Y. Alexahin, E. Gianfelice-Wendt, “A 3-TeV muon collider lattice design,” Proc. IPAC 2012, paper TUPPC041 (2012).
  41. Y. M. Ado, V. I. Balbekov, “Use of ionization friction in the storage of heavy particles,” At. Energ. 31(1) 40 (1971),
  42. English translation in Atomic Energy (Springer) 31 (1)731,
  43. D. Neuffer, AIP Conf. Proc. 156, p. 201 (1987); [CrossRef]
  44. D. Neuffer, “μ+μ− Colliders,” Yellow Report CERN-99-12 (1999);
  45. R. C. Fernow, J. C. Gallardo, Phys. Rev. E 52, 1039 (1995). [CrossRef]
  46. A. A. Zholents, M. Zolotorev, W. Wan, Phys. Rev. ST Accel. Beams 4, 031001 (2001). [CrossRef]
  47. S. Nagaitsev et al., “Design and Simulation of IOTA - a Novel Concept of Integrable Optics Test Accelerator,” Proc. IPAC’12, paper MOYCP01 (2012).
  48. Y. Bao, A. Caldwell, D. Greenwald, C. Blume, “Frictional cooling demonstration at MPP,” Proc. COOL2009 Workshop, paper TUM1MCCO03 (2009);
  49. T. J. Roberts, D. M. Kaplan, “Particle Refrigerator,” Proc. PAC’09, paper WE6PFP096 (2009);
  50. M. Mühlbauer et al., Hyperfine Interact. 119, 305 (1999). [CrossRef]
  51. Ya. Derbenev, R. P. Johnson, “Six-dimensional muon beam cooling using a homogeneous absorber: Concepts, beam dynamics, cooling decrements, and equilibrium emittances in a helical dipole channel,” Phys. Rev. ST Accel. Beams 8, 041002 (2005). [CrossRef]
  52. D. M. Kaplan, Proc. COOL’03 Workshop, Nucl. Instrum. Meth. A 532 (2004) 241. [CrossRef]
  53. J. Beringer et al. (Particle Data Group), Phys. Rev. D 86, 010001 (2012). [NASA ADS] [CrossRef]
  54. K. Yonehara et al., Proc. IPAC’13, paper TUPFI05 (2013);
  55. D. Bowring et al., Proc. IPAC’12, paper THPPC033 (2012);
  56. Y. Torun et al., Beam Dyn. Newslett. 55 (Aug. 2011) 103.
  57. MuCool Test Area website:
  58. See e.g. D. V. Neuffer, C. Yoshikawa, “Muon Capture for the Front End of a μ+-μ Collider,” Proc. Pac2011, paper MOP030 (2011), and
  59. J. S. Berg et al., “Cost-effective design for a neutrino factory,” Phys. Rev. ST Accel Beams 9, 011001 (2006).
  60. Y. Alexahin, “Circularly Inclined Solenoid Channel for 6D Ionization Cooling of Muons,” Proc. PAC09, paper TU3PBC04 (2009).
  61. C. Yoshikawa et al., “A Charge Separation Study to Enable the Design of a Complete Muon Cooling Channel,” Proc. PAC2013, paper THPHO19 (2013).
  62. D. Stratakis, R. B. Palmer, D. P. Grote, “Space-charge Studies for Ionization Cooling Lattices,” Proc. IPAC2013, paper TUPFI088 (2013).
  63. D. Stratakis, R. C. Fernow, J. S. Berg, R. B. Palmer, “Tapered channel for six-dimensional muon cooling towards micron-scale emittances,” Phys. Rev. ST Accel. Beams 16, 091001 (2013); [CrossRef]
  64. P. Snopok, G. G. Hanson, R. B. Palmer, “Simulations of the Tapered Guggenheim 6D Cooling Channel for the Muon Collider,” Proc. PAC2011, paper MOP059 (2011);
  65. P. Snopok, G. G. Hanson, “Six-Dimensional Cooling Lattice Studies for the Muon Collider,” Proc. IPAC10, paper WEPE080 (2010);
  66. P. Snopok, G. G. Hanson, “6D Cooling Simulations for the Muon Collider,” Proc. PAC2009, paper FR5PFP035 (2009);
  67. P. Snopok, G. G. Hanson, A. Klier, “Recent Progress on the 6D Cooling Simulations in the Guggenheim Channel,” Int. J. Mod. Phys. A 24, 987 (2009). [CrossRef]
  68. R. Palmer et al., “Ionization cooling ring for muons,” Phys. Rev. ST Accel. Beams 8, 061003 (2005). [CrossRef]
  69. D. Stratakis, R. B. Palmer, J. S. Berg, H.Witte, “Complete 6-Dimensional Muon Cooling Channel for a Muon Collider,” Proc. IPAC2014, paper TUPME020 (2014).
  70. K. Yonehara, “Progress of HCC Design and Simulation,” presented at MAP 2014 Spring Meeting, available at (2014).
  71. G. Flanagan et al., “Helical Muon Beam Cooling Channel Engineering Design,” Proc. IPAC2013, paper THPBA22 (2013).
  72. P. Hanlet et al., “High Pressure RF Cavities in Magnetic Fields,” Proc. EPAC 2006, p. 1364, June 2006.
  73. B. Freemire, “High Pressure Gas Filled RF Cavity Beam Test at the Fermilab MuCool Test Area,” PhD Thesis, Illinois Institute of Technology (2013).
  74. H. K. Sayed, J. S. Berg, R. B. Palmer, D. Stratakis, “Design and Simulation of a High Field - Low Energy Muon Ionization Cooling Channel,” Proc. IPAC14, paper TUPME019;
  75. R. B. Palmer, R. C. Fernow, J. Lederman, “Muon Collider Final Cooling in 30-50 T Solenoids,” Proc. PAC11, paper THOBN2 (2011).
  76. U. P. Trociewitz, “Another world record for the Magnet Lab: Research team generates worldrecord 35.4 tesla magnetic field using a superconducting insert magnet,”
  77. Y. Shiroyanagi et al., “15+ T HTS Solenoid for Muon Accelerator Program,” Proc. IPAC2012, paper THPPD048 (2012).
  78. J.A. Maloney et al., “Numerical Studies of Optimization and Aberration Correction Methods for the Preliminary Demonstration of the Parametric Ionization Cooling (PIC) Principle in the Twin Helix Muon Cooling Channel,” arXiv:1401.8256 [physics.acc-ph] (2014) and references therein.
  79. D. Summers, private communication.
  80. M. Ellis et al., “The design, construction and performance of the MICE scintillating fibre trackers,” Nucl. Instrum. Meth. A 659, 136 (2011). [CrossRef]
  81. F. F. Tikhonin, “On the Effects with Muon Colliding Beams,” JINR Report P2-4120 (Dubna, 1968);
  82. G. I. Budker, “Accelerators and Colliding Beams,” in Proc. 7th Int. Conf. on High-Energy Accelerators (Yerevan, 1969);
  83. extract available in AIP Conf. Proc. 352, 4 (1996).
  84. D. V. Neuffer, R. B. Palmer, “A high-energy high-luminosity μ+-μ− collider,” Proc. 1994 Eur. Particle Accelerator Conf. (EPAC94), p. 52;
  85. J. C. Gallardo et al., “Muon Muon Collider: Feasibility Study,” prepared for 1996 DPF/DPB Summer Study on New Directions in High-Energy Physics (Snowmass96), available from;
  86. C. M. Ankenbrandt et al., “Status of Muon Collider Research and Development and Future Plans,” Phys. Rev. ST Accel. Beams 2, 081001 (1999); [CrossRef]
  87. D. Ayres et al., “Expression of Interest in R&D towards a Neutrino Factory Based on a Storage Ring and a Muon Collider,” arXiv: physics/9911009;
  88. M. M. Alsharo’a et al., “Recent Progress in Neutrino Factory and Muon Collider Research within the Muon Collaboration,” Phys. Rev. ST Accel. Beams 6, 081001 (2003). [CrossRef]
  89. C. Y. Yoshikawa et al., “Intense Stopping Muon Beams,” Proc. PAC’09, paper MO6RFP080 (2009).
  90. Neutrino Factory and Muon Collider Collaboration (NFMCC) website:
  91. Muons, Inc. website:
  92. Muon Collider Task Force (MCTF) website:

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