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57. G. Vandoni: Heat transfer, CERN-2004-008, Geneva (2004) 325.
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59. M.C. Jones, V. Arp: Review of hydrodynamics and heat transfer for large helium cooling
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60. W. Obert, et al.: Emissivity measurements of metallic surfaces used in cryogenic applications,
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61. Yu.L. Buyanov: Current leads for use in cryogenic devices, principle of design and formulae
for design calculations, Cryogenics 25 (1985) 94.
62. A. Ballarino: Current leads, links and buses, CERN-2014-005, Geneva (2014) 547.
63. Ph. Lebrun: Design of a cryostat for superconducting accelerator magnets: the LHC main
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64. V. Parma: Cryostat design, CERN-2014-005, Geneva (2014) 353.
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35. M. Sorbi, et al., Status of the Activity for the Construction of the HK-LHC Superconducting
High Order Corrector Magnets at LASA Milano, IEEE Trans. Appl. Sup., 28(3), 4100205,
2018.
36. A. Krusche, M. Paoluzzi: The New Low Frequency Accelerating Systems for the CERN PS
Booster, 6 th Eur. Part. Accel. Conf. (EPAC98), Stockholm, 1998.
37. C. Ohmori, et al.: High Field-Gradient Cavities Loaded with Magnetic Alloys for Synchrotrons, Proc. 1999 Part. Accel. Conf. (PAC99), New York, 1999.
38. M. Paoluzzi, et al.: The LEIR RF System, Proc. 2005 Part. Accel. Conf. (PAC 2005),
Knoxville, 2005.
39. D. Grier, et al.: The PS 80 MHz Cavities”, 6 th Eur. Part. Accel. Conf. (EPAC98), Stockholm,
1998.
40. M. Benedikt, et al. (ed.): LHC Design Report, Vol. 3: The LHC Injector Chain, Chapter 16,
CERN-2004-003, Geneva, 2004.
41. D. Boussard, T. Linnecar: The LHC Superconducting RF System, Cryogenic Engineering and
Intern. Cryogenic Materials Conf. (CEC-ICMC’99), Montreal, 1999.
42. M. Aicheler et al. (ed.): A Multi-TeV Linear Collider based on CLIC Technology: CLIC
Conceptual Design Report, CERN-2012-007, JAI-2012-001, KEK Report 2012-1, PSI-1201, SLAC-R-985
43. R. Calaga: Crab Cavities for the High-Luminosity LHC, SRF2017, Lanzhou, China,
THXA03
44. Ph. Lebrun: Cryogenic systems for accelerators, in: Frontiers of Accelerator Technology,
World Scientific (1996) 681-700.
45. Ph. Lebrun: Superconductivity and cryogenics for future high-energy accelerators, Proc.
ICEC21 Prague, Icaris (2006) 13-21.
46. O. Bruning, et al. (eds.): LHC design report, CERN 2004-003, Vol. I, Chapter 11.
47. R.D. Mc Carty: Thermodynamic properties of helium 4 from 2 to 1500 K at pressures to
10 8 Pa, J. Chem. Phys. Ref. Data 2 (1973) 923.
48. V. Arp: HEPAK, Thermophysical properties of helium, www.cryodata.com
49. R.D. Mc Carty: GASPAK, Thermophysical properties of 36 fluids, www.cryodata.com
50. J. Wilks, D.S. Betts: An introduction to liquid helium, Clarendon Press, Oxford (1987).
51. S.W. van Sciver: Helium cryogenics, 2 nd ed., Springer, New York (2012).
52. F. Vinen: The physics of superfluid helium, CERN-2004-008, Geneva (2004) 363.
53. Ph. Lebrun, L. Tavian: Cooling with superfluid helium, CERN-2014-005, Geneva (2014) 453.
54. NIST Cryogenic Technologies Group: Cryogenic properties of materials,
www.cryogenics.nist.gov
55. P. Duthil: Material properties at low temperature, CERN-2014-005, Geneva (2014) 77.
56. J.G. Weisend (ed.): Handbook of cryogenic engineering, Taylor & Francis, Philadelphia
(1998).
57. G. Vandoni: Heat transfer, CERN-2004-008, Geneva (2004) 325.
58. B. Baudouy: Heat transfer and cooling techniques at low temperature, CERN-2014-005,
Geneva (2014) 329.
59. M.C. Jones, V. Arp: Review of hydrodynamics and heat transfer for large helium cooling
systems, in: Advances in refrigeration at the lowest temperatures, IIR-IIF Commission A1-2,
Zürich (1978) 41.
60. W. Obert, et al.: Emissivity measurements of metallic surfaces used in cryogenic applications,
Adv. Cryo. Eng. 27 (1982) 293.
61. Yu.L. Buyanov: Current leads for use in cryogenic devices, principle of design and formulae
for design calculations, Cryogenics 25 (1985) 94.
62. A. Ballarino: Current leads, links and buses, CERN-2014-005, Geneva (2014) 547.
63. Ph. Lebrun: Design of a cryostat for superconducting accelerator magnets: the LHC main
dipole case, CERN-2004-008, Geneva (2004) 348.
64. V. Parma: Cryostat design, CERN-2014-005, Geneva (2014) 353.
65. J.G. Weisend (ed.): Cryostat design: case studies, principles and engineering, Springer, NewYork (2016).