Cryogenic engineering: Second edition, revised and expanded

Cryogenic Engineering, Second Edition, Revised and Expanded

Volumn , Issue , 2004, Pages 1-914

  Flynn, Thomas M ^a  

^a CRYOCO Inc   (United States)

Author keywords

[No Author keywords available]

Indexed keywords

EID: 85055811377     PISSN: None     EISSN: None     Source Type: Book    
DOI: 10.1201/9780203026991     Document Type: Book

References (401)

1. Anderson, O. E. Jr. (1953). Refrigeration in America; A History of a New Technology and Its Impact. Princeton University Press.
2. Barron, R. F. (1985). Cryogenic Systems. 2nd ed. New York: Oxford University Press.
3. Burke, J. (1978). Connections. Boston: Little, Brown and Company.
4. Creuzbauer, R. (1899). Power Magazine. May, p. 18.
5. Hepworth, T. C. (1899). Liquid air. Chambers J. Sixth Series, 2:361.
6. Johnson, V. J. (1960). ACE. Vol. 5. New York: Plenum Press, p. 566.
7. McClintock, M. (1964). Cryogenics. New York: Reinhold Publishing Corp.
8. Morton, H. (1899a). Engineering fallacies-liquid air as a motive power. Cassier’s Mag. 16:29.
9. Morton, H. (1899b). Stevens Inst. Indicator 16:113. [Reprinted in (1899). Sci. Amer.80:245].
10. Remson, A. (1899). Liquid air. Sci. Am., June 10, 1899, p. 372.
11. Scott, R. B. (1959). Cryogenic Engineering. Princeton, NJ: D. Van Nostrand Co., Inc. [Prepared for the Atomic Energy Commision.]
12. Scurlock, R. G. ed. (1992). History and Origins of Cryogenics. Part II: Cryogenic Research. Oxford: Clarendon Press, 1992.
13. Sloane, T. O. (1899). Liquid Air and the Liquification of Gases: Theory, History, Biography, Practical Applications, Manufacture. London: Sampson Low, Marston and Co.
14. Thomson, E. (1899). The possibilities of liquid air power. Eng. Mag. 17:197.
15. Timmerhaus, K. D. (1982). ACE. 27. New York: Plenum Press, p. 1.
16. Tripler, C. E. (1899). Liquid air-newest wonder of science. The Cosmopolitan. 25:199. [This is the only known account of Tripler’s demonstrations written himself.]
17. Wilshire, H. G. (1899). Sci. Am. 81:118.
18. Abbott, M. M., Van Ness, H. C. (1972). Schaum’s Outline of Theory and Problems of Thermodynamics. New York: McGraw-Hill.
19. Banchero, J. T., Barker, G. E., Boll, R. H. (1951). Heat transfer characteristics of boiling oxygen, fluorine, and hydrazine, Proj. M834. Engineering Research Inst., Univ. of Michigan.
20. Bell (1968). K. J. Adv. Cryo. heat transfer. In: Chemical Engineering Progress Symposium Series. Vol. 64, No. 87.
21. Brentari, E. G., Giarratano, P. J., Smith, R. V. (1965). Boiling heat transfer for oxygen, nitrogen, hydrogen, and helium. US Nat. Bur. Stand. Tech. Note No. 317, Sept.
22. Drayer, D. E., Timmerhaus, K. D. (1962). An experimental investigation of the individual boiling and condensing heat transfer coefficients for hydrogen. Adv. Cryo. Eng 7:401-412.
23. Flynn, T. M., Draper, J. W., Ross, J. J. (1962). The nucleate and film boiling curve of liquid nitrogen at one atmosphere. Adv. Cryo. Eng. 7:539-545.
24. Frederking, T. H. K. (1959). Film boiling of helium I and other liquefied gases on single wires.AIChE J. 5(3):403-406.
25. Krishnaprakas, C. K., et al. (2000). Heat transfer correlations for multilayer insulation systems. Cryogenics 40(7):431-435.
26. Lewis, G. N., Randall, M., Pitzer, K. S., Brewer, L. (1961). Thermodynamics. 2nd ed. New York: McGraw-Hill.
27. Lyon, D. N. (1964). Peak nucleate boiling heat fluxes and nucleate boiling heat transfer coefficients for liquid N2, liquid O2 and their mixtures in pool boiling at atmospheric pressure. Intl J. Heat Mass Transfer 7(10):1097.
28. Lyon, D. N. (1965). Peak nucleate boiling fluxes and nucleate boiling heat transfer coefficients in saturated liquid helium between the l and critical temperatures. Adv. Cryo. Eng. Vol. 10.
29. Ramirez, J. A. (2000). Measurement of heat transfer coefficients in high NTU regenerative heat exchangers. Adv. Cryog. Eng. 45:403-410.
30. Sandler, S. I. (1977). Chemical and Engineering Thermodynamics. New York: Wiley.
31. Schmidt, A. F. (1972). ASRDI Oxygen Technology Survey. Vol. I. Heat Transfer and Fluid Dynamics. Tech. Rept. NASA SP-3076. Vol. III. Jan, 177 pages.
32. Seader, J. D. (1965). Boiling Heat Transfer for Cryogenics. NASA-CR-243. 171 pages.
33. Sliepcevich, C. M., Hashemi, H. T., Colver, C. P. (1968). Heat transfer problems in LNG technology. In: Chemical Engineering Progress Symposium Series. Vol. 64, No. 87, pp. 120-126.
34. Smith, J. M., Van Ness, H. C. (1975). Introduction to Chemical Engineering Thermodynamics. 3rd ed. New York: McGraw-Hill.
35. Waynert, J. et al. (1990a). Transient heat transfer characteristics of liquid hydrogen, including freezing. In: Proceedings of the AIAA Second International Aerospace Planes Conference AIAA-90-5213.
36. Weil, L. (1951). Heat transfer coefficients of boiling liquified gases. In: Proceedings of the Eighth International Congress on Refrigeration. London, IC: 9193947, 181 pages.
37. Williamson, K. D., et al. (1968) Studies of Forced Convection Heat Transfer to Cryogenic Fluids. In: Chemical Engineering Progress Symposium Series. Vol. 64, No. 87, pp. 103-110.
38. Zemansky, M. W. (1957). Heat and Thermodynamics. 4th ed. New York: McGraw-Hill.
39. Zuber, N., Fried, E. (1962). Two-phase flow and boiling heat transfer to cryogenic liquids.ARS J. 32:1332-1341.
40. Brentari, E. G., Giarratano, P. J., Smith, R. V. (1965). Boiling heat transfer for oxygen, nitrogen, hydrogen, and helium. US Nat. Bur. Stand. Tech. Note No. 317, Sep.
41. Drayer, D. E., Timmerhaus, K. D. (1962). An experimental investigation of the individual boiling and condensing heat transfer coefficients for hydrogen. Adv. Cryo. Eng.7:401-412.
42. Flynn, T. M., Draper, J. W., Ross, J. J. (1962). The nucleate and film boiling curve of liquid nitrogen at one atmosphere. Adv. Cryo. Eng. 7:539-545.
43. Frederking, T. H. K. (1959). Film boiling of helium I and other liquefied gases on single wires.AIChE J. 5(3):403-406.
44. Lewis, G. N., Randall, M., Pitzer, K. S., Brewer, L. (1961). Thermodynamics. 2nd ed. New York: McGraw-Hill.
45. Lyon, D. N. (1964). Peak nucleate boiling heat fluxes and nucleate boiling heat transfer coefficients for liquid N2, liquid O2 and their mixtures in pool boiling at atmospheric pressure. Intl J. Heat Mass Transfer 7(10):1097.
46. Lyon, D. N. (1965). Peak nucleate boiling fluxes and nucleate boiling heat transfer coefficients in saturated liquid helium between the l and critical temperatures. Adv. Cryo. Eng. 10.
47. Sandler, S. I. (1977). Chemical and Engineering Thermodynamics. New York: Wiley.
48. Smith, J. M., Van Ness, H. C. (1975). Introduction to Chemical Engineering Thermodynamics. 3rd ed. New York: McGraw-Hill.
49. Weil, L. (1951). Heat transfer coefficients of boiling liquified gases. In: Proceedings of the Eighth International Congress on Refrigeration. London.
50. Zemansky, M. W. (1957). Heat and Thermodynamics. 4th ed. New York: McGraw-Hill.
51. Zuber, N., Fried, E. (1962). Two-phase flow and boiling heat transfer to cryogenic liquids.ARS J. 32:1332-1341.
52. Arp, V. (1998). A Summary of fluid properties including near-critical behavior. In: Proceedings of the International Conference on Cryogenics and Refrigeration, held April 21-24, International Academic Publishers, pp. 387-392.
53. Gershman, R., Sherman, A. I. (1979). Fluid Properties Handbook. NBS No. 48307, R-2732, 176-364.
54. Mann, D. B. (1962a). The thermodynamic properties of helium from 3 to 300K between 0.5 and 100 Atmospheres. NBS Technical Note No. 154, PB 172217. US Government Printing Office, pp. 95.
55. Mann, D. B. (1962b). The thermodynamic properties of helium from 6 to 540_R between 10 and 1500 psia. NBS Technical Note No. 154A, PB 182435. US Government Printing Office. 89 pages.
56. McCarty, R. D. (1973). Thermodynamic properties of helium-4 from 2 to 1500K with pressures to 108 Pa. J. Phys. Chem. Ref. Data 2(4):923-1041.
57. McCarty, R. D., Weber, L. A. (1972). Thermophysical properties of para hydrogen from the freezing liquid line to 5000R for pressures to 10,000 psia. NBS Technical Note No. 617. US Government Printing Office, 169 pages.
58. Roder, H. M., Weber, L. A., Goodwin, R. D. (1965). Thermodynamic and related properties of parahydrogen from the triple point to 100K at pressures to 240 Atmospheres. NBS Monograph 94, 110 pages.
59. Storvick, T. S., Sandler, S. I. (1977). Phase equilibria and fluid properties in the chemical industry estimation and correlation. In: ACS Symposium Series, No. 60, p. 550.
60. Strobridge, T. R. (1962a). The thermodynamic properties of nitrogen from 64 to 300K between 0.1 and 200 Atmospheres. NBS Technical Note No. 129, PB 161630. US Government Printing Office, 85 pages.
61. Strobridge, T. R. (1962b). The thermodynamic properties of nitrogen from 114 to 540_R between 0.1 and 3000 psia. Supplement A (British units) NBS Technical Note No. 129A. US Government Printing Office, 85 pages.
62. Weber, L. A. (1975). Thermodynamic and related properties of parahydrogen from the triple point to 300 K at pressures to 1000 bar. NASA Spec. Publ. No. SP-3088 and NBS Interagency Rep. No. NBSI R 74-374, NASA-SP-3088, 105 pages.
63. Zudkevitch, D., Gray, R. D. Jr. (1975). Impact of fluid properties on the design of equipment for handling LNG. Adv. Cryog. Eng. 20:103-123.
64. Arp, V., Kropschot, R. H. (1962). Helium. In: Vance, R. W., ed. Applied Cryogenic Engineering. New York: John Wiley and Sons, Inc.
65. Baly, E. C. C., Donnan, F. G. (1902). J. Chem. Soc. 81:907.
66. Berman, R., Mate, C. R. (1958). Phil. Mag. 8(3):461-469.
67. Brickwedde, F. G., van Dijk, H., Durieux, M., Clement, J. R., Logan, J. K. (1960). J. Res. Natl. Bur. Stand. 64A:1.
68. Din, F. (1956). Thermodynamic Functions of Gases. 2nd ed. London: Butterworths.
69. Elverum, G. W., Doescher, R. N. (1952). J. Chem. Phys. 20:1834-1836.
70. Franck, E. U., Stober, (1952). Zeits für Naturforschung 7A:822.
71. Frank, E. U., Wicke, E. (1951). A. Elektrochem 55:636-643.
72. Fricke, E. F. (1948). Report No. F-5028 101 ATI 121 150. Farmingdale, NY: Republic Aviation Corp.
73. Furukawa, G. T., McCoskey, R. E. (1953). NACA Technical Note 2969.
74. Gerold, E (1951). Ann. Physik 65:82-96.
75. Grenier, C. (1951). Phys. Rev. 83(3):589-603.
76. Hilsenrath, J., et al. (1955). NBS Circular 564. Washington, DC: US Government Printing Office, p. 424.
77. Hoge, H. J. (1950). J. Res. Natl. Bur. Stand. 44:321-345.
78. Hoge, H. J., King, G. K. (1950). NACA Tables of Thermal Properties of Gases. Table 11.50. Washington, DC: National Bureau of Standards. US Government Printing Office.
79. Hu, J. H., White, D., Jophnston, H. L. (1953). J. Am. Chem. Soc. 75:5642-5645.
80. Jacobsen, R. T., Stewart, R. B., McCarty, R. D., Hanley, H. J. M. (1973). Thermophysical properties of nitrogen from the fusion line to 3500 R (1944 K) for pressures to 150,000 psia (10342_105 N=m2). NBS Technical Note 648. Washington, DC: US Government Printing Office.
81. Jarry, R. L., Miller, H. C. (1956). J. Am. Chem. Soc. 78:1552-1553.
82. Jelatis, J. G. (1948). J. Appl. Phys. 19:419-425.
83. (1960). Johnson, V. J., ed. A Compendium of the Properties of Materials at Low Temperatures (Phase I). Part 1, Properties of fluids. WADD Technical Report 60-56, 874 pages.
84. Johnson, H. L., McCloskey, K. E. (1940). J. Phy. Chem. 44(9):1038-1058.
85. Keesom, W. H. (1922). Onnes-Festschrift. pp. 89-163.
86. Keesom, W. H. (1923). Physik Ber 4:613.
87. Kestin, J., Wang, H. E. (1958). Trans. ASME 80:11-17.
88. Lounasmaa, O. U. (1958). Thesis submitted for the degree of Doctor of Philosophy. England:University of Oxford.
89. Mathias, E., Crommelin, C. A. (1924). In: Proceedings of the Fourth International Congress of Refrigeration 1, pp. 89-106a.
90. Mathias, E., Onnes, H. K. (1911). Commun. Phys. Lab. No. 117. The Netherlands: University of Leiden.
91. McCarty, R. D. (1972). Thermophysical properties of helium-4 from 2 to 1500 K with pressures to 1000 atmospheres. NBS Technical Note 631. Washington, DC: US Government Printing Office.
92. McCarty, R. D., Roder, H. M. (1981). Selected properties of hydrogen (engineering design data). NBS Monograph 168. Washington, DC: US Government Printing Office.
93. McLennan, J. C., Jacobsen, R. C., Wilhelm, J. O. (1930). Trans. Roy. Soc. Can. 24(3):37-46.
94. Millar, R. W., Sullivan, J. D. (1928). Bureau of Mines Technical Paper 424.
95. Mills, R. L., Grilley, E. R. (1955). Phys. Rev. 99(2):480-486.
96. Roder, H. M., Weber, L. A. (1972). Thermophysical properties. ASRDI Oxygen Technology Survey. Vol. I. NASA SP-3071.
97. Rossini, F. D., et al. (1952). NBS Circular 500. Washington, DC: US Government Printing Office.
98. Rudenko, N. S. (1939). J. Exptl. Theoret. Phys. (USSR) 9:1078.
99. Rudenko, N. S., Shubnikow, L. V. (1934). Physik. Z. Sowjetunion (USSR), 6:470-477.
100. Schmidt, H. W., Forney, D. E. (1975). Oxygen systems engineering review. ASRDI Oxygen Technology Survey. Vol. IX. NASA SP-3090.
101. Simon, F., Lange, F. (1923). Z. Physik 15:312.
102. Van Itterbeek, A. (1955). Progress in Low Temperature Physics. Vol. 1. Amsterdam, The Netherlands: North Holland Publishing Company.
103. Verschaffelt, J. E. (1929). Commun. Kammerlingh Onnes Lab. Supplement No. 64d. The Netherlands: University of Leiden.
104. Wooley, H. W., Scott, R. B., Brickwedde, F. G. (1948). J. Res. Natl. Bur. Stand. 41:379.
105. Ho, C. Y., Li, H. H. (1986). Computerized comprehensive numerical data system on the thermophysical and other properties of materials established at Cindas=Purdue University.Int. J. Thermophy’s. 7(4):949-962.
106. Hust, J. G., Kirby, R. K. (1978). Standard reference materials for thermophysical properties.Adv. Cryo. Eng. Vol. 24, Plenum Press, pp. 232-239.
107. Vasiliev, L. L. et al. (1977). Thermophysical properties of composite polymer materials in cryogenic techniques. In: International Cryogenic Materials Conference, No. 18.
108. ASME Boiler and Pressure Vessel Code (1983). Sec. VIII, Rules for Construction of Pressure Vessels. New York: American Society of Mechanical Engineers.
109. Barrett, C. S. (1957). Trans. Am. Soc. Metal 49:53.
110. (1978). In: Baumeister, T., ed. Mark’s Standard Handbook for Mechanical Engineers. 8th ed. New York: McGraw-Hill.
111. Brick, R. M. (1953). Behavior of Metals at Low Temperatures. Cleveland, OH: American Society for Metals (ASM).
112. Campbell, J. E. (1974). Handbook on Materials for Superconducting Machinery (MCIC-HB-04). Columbus, OH: Metals and Ceramics Information Center, Battelle Memorial Institute.
113. Corruccini, R. J. (1957). Chem. Eng. Prog. 53:397.
114. Cottrell, A. H. (1953). Dislocations and Plastic Flow in Crystals. London: Oxford University Press.
115. Durham, T. F., McClintock, R. M., Reed, R. P. (1962). Cryogenic Materials Data Handbook (PB 171809), Air Force Contract AF04 (647)-59-3, NBS Cryogenic Engineering Laboratory. Office of Technical Services. Washington, DC: US Department of Commerce.
116. Fisher, J. C., ed. (1957). Dislocations and Mechanical Properties of Crystals. New York: John Wiley and Sons, Inc., 634 pages.
117. Johnson, V. J., ed. (1960). A Compendium of the Properties of Materials at Low Temperatures (Phase I). Part II, Properties of solids, WADD Technical Report 60-56.
118. Jones, G. O. (1956). Glase. New York: John Wiley and Sons, Inc.
119. Kropschot, R. H., Mikesell, R. P. (1957). J. Appl. Phys. 28:610.
120. Read, R. P. and Clark, A.F. (1983). Materials at Low Temperatures. Metals Park, OH:American Society for Metals, 590 pages.
121. McClintock, R. M., Gibbons, H. P. (1960). Mechanical properties of structural materials at low temperatures. NBS Monograph 13, Washington, DC: US Government Printing Office.
122. Quarrel, A. G. (1959). The Structure of Metals. New York: Interscience Publishers, Inc.
123. Teed, P. L. (1950). The Properties of Metallic Materials at Low Temperatures. New York:John Wiley and Sons, Inc.
124. Van Buren, H. G. (1960). Imperfections in Crystals. New York: Interscience Publishers, Inc.
125. Weitzel, D. H., Robbins, R. F., Copp, G. R., Bjorklund, W. R. (1978). Elastomers for static seals at cryogenic temperatures. Advances in Cryogenic Engineering. 6th ed. New York:Plenum Press.
126. Weitzel, D. H., Robbins, R. F., Copp, G. R., Bjorklund, W. R. (1960). Rev. Sci. Instrum.31:1350.
127. Dillard, D. S. (1968). Thermal transport properties of selected solids at low temperatures. In:Chemical Engineering Progress Symposium Series. Vol. 64. p. 87.
128. Dillard, D. S. (1979). Thermal transport properties of selected solids at low temperatures. In:AICHE Symposium on Advances in Cryogenic Heat Transfer.
129. Johnson, V. J., Diller, D. E. (1970). Thermodynamic and Transport Properties of Fluids and Selected Solids for Cryogenic Applications. Rept. No. 9782. Boulder, CO: National Bureau of Standards, 57 pages.
130. (1959). In: Touloukian, Y.S. ed. Thermodynamic and transport properties of gases, liquids and solids. In: ASME Symposium on Thermal Properties, 472 pages.
131. Bardeen, J., Cooper, L. N., Schrieffer, J. R. (1957). Theory of superconductivity. Phys. Rev.108:1175-1204.
132. Corruccini, R. J., Gniewek, J. J. (1960). Specific heats and enthalpies of technical solids at low temperatures. NBS Monograph 21. Washington, DC: US Government Printing Office.
133. Corruccini, R. J., Gniewek, J. J. (1961). Thermal expansion of technical solids at low temperatures. NBS Monograph 29. Washington, DC: US Government Printing Office.
134. Crittenden, E. C., Jr. (1963). Properties of solids and liquids. Cryogenic Technology. New York: John Wiley and Sons, Inc.
135. Dillard, D. S., Timmerhaus, K. D. (1968). Chem. Eng. Prog., Symp. Ser. Vol. 64, No. 87, p. 1.
136. File, J., Mills, R. G. (1963). Phys. Rev. Lett. 10:93.
137. Fulk, M. M. (1959). Progress in Cryogenics. I. London: Heywood, 65.
138. Gopal, E. S. R. (1966). Specific Heats at Low Temperatures. New York: Plenum Press.
139. Gruneisen, E. (1926). The state of a solid body. Trans. from Handbuch der Physik. Vol. 10.
140. Johnson, V. J., ed. (1960). A Compendium of the Properties of Materials at Low Temperatures (Phase I). Part II, Properties of Solids. WADD Technical Report 60-56.
141. Landoldt-Bornstein (1961). Zahlenwerte and Funktionen. Vol. 2. Pt. 4, 6th ed. Berlin: Springer.
142. Lynton, E. A. (1969). Superconductivity. New York: John Wiley and Sons, Inc.
143. Onnes, K. H. (1911). The Resistance of Pure Mercury at Helium Temperature. Leiden Commun. No. 120b. The Netherlands: University of Leiden.
144. Powell, R. L. (1963). American Institute of Physics Handbook. 2nd ed. New York: McGraw-Hill, pp. 4-76.
145. Powell, R. W., Ho, C. Y., and Liley, P. E. (1966). Thermal conductivity of selected materials. NSRDS-NBS. 8th ed. Washington, DC: US Government Printing Office.
146. Schmidt, A. F. (1968). Technical Manual of Oxygen/Nitrogen Systems. NAVAIR 06-30-501.
147. Silsbee, F. B., Jr. (1916). Electric conduction in metals at low temperatures. J. Wash. Acad. Sci. 6.
148. Touloukian, Y. S., ed. (1964). Metallic elements and their alloys. Thermophysical Properties Research Center Data Book. I. Purdue University Press.
149. White, G. K. (1959). Experimental Techniques in Low Temperature Physics. Oxford, England:Clarendon Press.
150. Zemansky, M. W. (1957). Heat and Thermodynamics. New York: McGraw-Hill.
151. Gschneidner, Jr., K. A., et al. (1994). New magnetic refrigeration materials for the liquefaction of hydrogen. Advances in Cryogenic Engineering. Vol. 39. London: Plenum Press, pp. 1457-1465.
152. Ishizuka, M., et al. (1975). New type screw compressor for helium refrigerators and liquefiers.Cryo. Eng. (Tokyo) 10(4):134-139.
153. Kakimi, Y., et al. (1997). Pulse-tube refrigerator and nitrogen liquefier with active buffer system. Availability: approved for public release; distribution is unlimited. Cryocoolers. Vol. 9. London: Plenum Press, pp. 247-253.
154. Kanazawa, M. (1993). Refrigeration by a small liquefaction plant. Cryo. Eng. (Japan) 28:9-16.
155. Matsumoto, K., et al. (1996). Improvement of the performance of helium liquefaction system on dilution refrigerator using Gm Precooled Jt expansion refrigerator with magnetic regenerator. Cryo. Eng. (Japan) 31(4):86-92.
156. Nagao, M., et al. (1989). Helium liquefaction by Gifford-mcmahon cycle cryogenic refrigerator.Cryo. Eng. (Japan) 24(4):34-39.
157. Narinsky, G. B., et al. (1995). Influence of thermodynamic parameters on main characteristics of helium liquefaction and refrigeration plant. Cryogenics 35(8): 483-487.
158. Ohira, K., Nakamichi, K., Furimoto, H. (2000). Experimental study on magnetic refrigeration for the liquefaction of hydrogen. Advances in Cryogenic Engineering. Vol. 45, Kluwer Academic=Plenum Publishers, pp. 1747-1754.
159. Collins, S. A., Paduano, J. D. (1994). Multi-axis vibration cancellation for Stirling cryocoolers.Proc. SPIE 2227:145-155.
160. Curran, D. G. T., et al. (2000). Cryocooler state of the art for space-borne applications. Advances in Cryogenic Engineering. Vol. 45. Kluwer Academic/Plenum Publishers, pp. 585-594.
161. Gao, C. M., et al. (2000). Study on a pulse tube cryocooler using gas mixture as its working fluid. Cryogenics 40(7):475-480.
162. Gong, M. Q., et al. (2000). Prediction of transport for multicomponent cryogenic mixtures used in J-T cryocoolers. Advances in Cryogenic Engineering. Vol. 45. Kluwer Academic/Plenum Publishers, pp. 1159-1165.
163. Harvey, J. P., Kirkconnell, C. S., Desai, P. V. (2000). Regenerator performance evaluation in a pulse tube cryocooler. Advances in Cryogenic Engineering. Vol. 45, Kluwer Academic= Plenum Publishers, pp. 373-381.
164. Levenduski, R. L., Scarlotti, R. (1994). Development of a cryocooler for space applications. Proc. SPIE 2227, 109-126.
165. Luo, E. C., et al. (2000). The research and development of cryogenic mixed-refrigerant Joule-Thomson cryocoolers. Advances in Cryogenic Engineering. Vol. 45. Kluwer Academic/Plenum Publishers, pp. 299-306.
166. Tomlinson Jr., B. J., et al. (2000). Air force research laboratory cryocooler characterization status and lessons learned. Advances in Cryogenic Engineering. Vol. 45. Kluwer Academic=Plenum Publishers, pp. 595-601.
167. Tomlinson Jr., B. J., et al. (2000). Air force research laboratory spacecraft cryocooler endurance evaluation. Advances in Cryogenic Engineering. Vol. 45. Kluwer Academic=Plenum Publishers, pp. 609-616.
168. Unger, R. Z., Wood, J. G. (2000). Performance comparison of M77 Stirling cryocooler and proposed pulse tube cryocooler. Advances in Cryogenic Engineering. Vol. 45, Kluwer Academic=Plenum Publishers, pp. 539-544.
169. Barclay, J. A., Steyert, W. A., Zrudsky, D. R. (1979). Proceedings of the XVth International Congress of Refrigeration.
170. Brown, G. V. (1976). J. Appl. Phys. 47(8):3673-3680.
171. Brown, G. V. (1979). Phys. Today, June 18.
172. Gifford, W. E., Longsworth, R. C. (1964). Pulse tube refrigeration progress. International Advances in Cryogenic Engineering. Vol. 10. Pt. 2. New York: Plenum Press (reprinted from Proceedings of the 1964 Cryogenic Engineering Conference. Philadelphia, PA).
173. Kirk, A. G. (1874). Min. Proc. Inst. Civ. Eng. 37:244-315.
174. Kohler, J. W. H. (1956). Gas refrigerating machines. Advances in Cryogenic Engineering. Vol. 2. New York: Plenum Press, (1960) (reprinted from Proceedings of the 1956 Cryogenic Engineering Conference. NBS, Boulder, CO).
175. Kohler, J. W. H. (1959). Refrigeration below _100_C. Advances in Cryogenic Engineering. Vol. 5. New York: Plenum Press (1960) [reprinted from Proceedings of the 1959 Cryogenic Engineering Conference. University of California, Berkeley].
176. London, H. (1951). Proceedings of the International Conference on Low Temperature Physics. Oxford, England, p. 157.
177. Longsworth, R. C. (1967). An experimental investigation of pulse tube refrigeration heat pumping rates. Advances in Cryogenic Engineering. Vol. 12. New York: Plenum Press.
178. Mann, D. B. (1962). The thermodynamic properties of helium from 3 to 300K between 0.5 and 100 atmospheres. NBS Technical Note 154. Washington DC: US Government Printing Office.
179. Merkli, P., Thomann, H. (1975). Thermoacoustic effects in a resonance tube. J. Fluid Mech.70:161.
180. Mikulin, E. I., Tarason, A. A., Shkrebyonock, M. P. (1984). Low-temperature expansion of pulse tubes. Advances in Cryogenic Engineering. 29. New York: Plenum Press.
181. Pratt, W. P., Jr., Rosenblum, S. S., Steyert, W. A., Barclay, J. A. (1997). A continuous demagnetization refrigerator operating near 2K and a study of magnetic refrigerants.Cryogenics 17:689.
182. Radebaugh, R. (1977). Refrigeration Fundamentals: A view toward new refrigeration systems, Applications of closed-cycle cryocooloers to small superconducting applications. NBS Special Publications 508. Washington, DC: US Government Printing Office.
183. Radebaugh, R. (1986). A comparison of three types of pulse tube refrigerators: new methods for reaching 60 K. Advances in Cryogenic Engineering. 31. New York: Plenum Press.
184. Radebaugh, R. (1990). A review of pulse tube refrigeration. Advances in Cryogenic Engineering. 35. New York: Plenum Press.
185. Sato, T. 1968. Some experiments on the reciprocating expander for large He liquefiers. Proceedings of the 1968 Cryogenic Engineering Conference. Tokyo, Japan Heywood-Temple. London: pp. 217-218.
186. Sloane, T. O. (1900). Liquid Air and the Liquefaction of Gases: Theory, History, Biography, Practical Applications, Manufacture. 2nd ed. New York: Henley Press.
187. Solvay, E. (1887). Deutches Reichspatent. No. 39, 280.
188. Steyert, W. A. (1978a). Applications of closed-cycle cryocoolers to small superconducting devices. J. Appl. Phys. 49:1227.
189. Steyert, W. A. (1978b). J. Appl. Phys. 49:1216.
190. Strobridge, T. R. (1974). Cryogenic Refrigerators-an Updated Summary. NBS Technical Note 655. Washington, DC: US Government Printing Office.
191. Van Geuns, J. R. (1966). Phillips Res. Rep. Suppl. No. 6, Eindhoven, Netherlands.
192. Walker, G. (1983). Cryocoolers. Vol. I. New York: Plenum Press.
193. Wheatley, J., Hafler, T., Swift, G. W., Migliori, A. (1983). An intrinsically irreversible thermoacoustic heat engine. J. Acoust. Soc. Am. 74:153.
194. Wheatley, J., Hafler, T., Swift, G. W., Migliori, A. (1985). Understanding some simple phenomena in thermoacoustics with applications to acoustical heat engines. Am. J. Phys. 53:147.
195. Zemansky, M. W. (1957). Heat and Thermodynamics. 4th ed. New York: McGraw-Hill.
196. Augustynowicz, S. D., Fesmire, J. E. (2000). Cryogenic insulation system for soft vacuum. Advances on Cryogenic Engineering. Vol. 45, Kluwer Academic=Plenum Publishers, pp. 1691-1698.
197. Blevins, E., Sharpe, J. (1995). Water blown urethane insulation for use in cryogenic environments. NTIS N95-31765.
198. Celik, E., Schwartz, J. (1999). Evaluation of adhesion strength of sol-gel ceramic insulation for Hts magnets. IEEE Trans. Appl. Superconductivity 9(2):1916-1919.
199. Heaney, J. B. (1998). Efficiency of aluminized Mylar insulation at cryogenic temperatures.Proc. SPIE 35:150-157.
200. Kamiya, S., et al. (2000). Thermal test of the insulation structure for Lh2 tank by using the large experimental apparatus. Cryogenics 40(11):737-748.
201. Kosaki, M., et al. (1998). Solid insulation and its deterioration. Cryogenics 38(11): 1095-1104.
202. Krishnaprakas, C. K., et al. (2000). Heat transfer correlations for multilayer insulation systems. Cryogenics 40(7):431-435.
203. Kumar, A. S., et al. (2000). Thermal performance of multilayer insulation down to 4.2 Advances in Cryogenic Engineering. Vol. 45. Kluwer Academic/Plenum Publishers, pp. 1675-1682.
204. Black, I. A., Glaser, P. E. (1966). Advances in Cryogenic Engineering. Vol. 11. New York:Plenum Press, 26.
205. Corruccini, R. J. (1957). Chem. Eng. Prog. 53: 6:262-267; 7:342-346; 8:397-402.
206. Corruccini, R. J. (1958). Gaseous heat conduction at low pressure and temperature. Vacuum 7:8, 19-29.
207. Fulk, M. M. (1959). Evacuated powder insulation for low temperatures. Progress in Cryogenics. Vol. 1. London: Heywood and Co.
208. Hunter, B. J., Kropschot, R. H., Schrodt, J. E., Fulk, M. M. (1960). Metal powder additives in evacuated powder insulation. Advances in Cryogenic Engineering. Vol. 5. New York:Plenum Press.
209. Knudsen, M. (1910). Ann. D. Physik 31:205-229; 32:809-842; 33:1435.
210. Knudsen, M. (1930). Radiometer Pressure and Coefficient of Accommodation. Copenhagen, Denmark: A. F. Hast and Son.
211. Kropschot, R. H. (1959). ASHRAE J. 1:48-54.
212. Kropschot, R. H. (1963). Insulation technology. In: Vance, R. W., ed. Cryogenic Technology. New York: John Wiley and Sons, Inc.
213. Lindquist, C. R., Niendorf, L. R. (1963). Advances in Cryogenic Engineering. Vol. 8. New York: Plenum Press, p. 398.
214. Partington, J. R. (1952). Advanced Treatise on Physical Chemistry. Vol. I. New York: Longmans, Green and Co., Inc.
215. Petersen, P. (1958). Swedish technical research council report no. 706 (1951). Sartryck Ur TVF 29(4):151.
216. Stoy, S. T. (1960). Cryogenic insulation development. Advances in Cryogenic Engineering. Vol. 5. New York: Plenum Press.
217. Timmerhaus, K. D., Flynn, T. M. (1989). Cryogenic Process Engineering. New York: Plenum Press.
218. Balle, Ch. (2000). Influence of thermal cycling on cryogenic thermometers. Advances in Cryogenic Engineering. Vol. 45, Kluwer Academic=Plenum Publishers, pp. 1817-1823.
219. Phillips, R. W. (2000). Approximating the resistance-temperature relationship of platinum resistance thermometers from 20K to 273 K. Advances in Cryogenic Engineering, Kluwer Academic=Plenum Publishers, pp. 1809-1815.
220. Safrata, R. S., et al. (1980). Deuterized cerium lanthanum magnesium nitrate as a magnetic thermometer. J. Low Temp. Phys. 41(3=4):405-407.
221. Soulen, Jr., et al. (1980). A self-calibrating rhodium-iron resistive squid thermometer for the range below 0.5 K. J. Low Temp. Phys. 40(5/6):553-569.
222. Haraguchi, K. (1992). Measurement of flow-rate, liquid level and stress-strains. Cryo. Eng. (Japan) 27(5):10-15.
223. Karunanithi, R., et al. (2000). Development of discrete array type liquid level indicator for cryogenic fluids. Advances in Cryogenic Engineering. Vol. 45. Kluwer Academic/Plenum Publishers, pp.1803-1808.
224. Alspach, W. J., Flynn, T. M. (1965). Considerations when using turbine type flowmeters in cryogenic service. Advances in Cryogenic Engineering. Vol. 10. New York: Plenum Press, pp. 246-252 (reprinted from Proceedings of the 10th Cryogenic Engineering Conference. Philadelphia, PA, August 1964).
225. Alspach, W. J., Miller, C. E., Flynn, T. M. (1966). Mass flowmeters in cryogenic service. Flow Measurement Symposium Proceedings. ASME Flow Measurement Conference, Pittsburgh, PA, September.
226. Arvidson, J. M., Brennan, J. A. (1975). Pressure measurement. ASRDI oxygen technology survey. Vol. VIII. NASA SP-3092.
227. ASME (1971). Fluid Meters, Their Theory and Applications. 6th ed. New York: ASME.
228. Blakemore, J. S., Winstel, J., Edwards, R. V. (1970). Computer fitting of germanium thermometer characteristics. Rev. Sci. Instrum. 41(6):835-842.
229. Brennan, J. A., Dean, J. W., Mann, D. B., Kneebone, C. H. (1971). An evaluation of positive displacement cryogenic volumetric flowmeters. NBS Technical Note 605. Washington, DC: US Government Printing Office.
230. Brennan, J. A., Stokes, R. W., Kneebone, C. H., Mann, D. B. (1974). An evaluation of selected angular momentum, vortex shedding and orifice cryogenic flowmeters. NBS Technical Note 650. Washington, DC: US Government Printing Office.
231. Callendar, H. L. (1887). On the practical measurement of temperature. Phil. Trans. Roy. Soc. London 178:160-230.
232. Clement, J. R., Quinnel, E. H. (1952). Rev. Sci. Instrum. 23:213-216.
233. Close, D. L. (1968). Flow measurement of cryogenic fluids. Instrum. Control Syst. 41(2):109-114.
234. Close, D. L. (1969). Cryogenic flowmeters. Cryogenics and Industrial Gases. August.
235. Collier, R. S., Sparks, L. L., Strobridge, T. R. (1973). Carbon thin film thermometry. NBS Information Report 74-355. Boulder, CO: National Bureau of Standards.
236. Crawford, R. B. (1963). A broad look at cryogenic flow measurement. Instrum. Soc. Am. J. 10(6):65-72.
237. Dike, P. H. (1954). Thermoelectric Thermometry. 1st ed. Philadelphia, PA: Leeds and Northrup Company.
238. Droms, C. R. (1962). Thermistors for temperature measurements. Temperature-Its Measurement and Control in Science and Industry 3. Part 2. New York: Reinhold Publishing Corporation, pp. 339-346.
239. Fox, A. (1967). Cryogenic flow measurement for custody transfer. ASME Winter Annual Meeting. Pittsburgh, PA, November 12-17. National Cylinder Gas Division, Chemetron Corp. Chicago: ILL.
240. ISA(1970). StandardPractices for Instrumentation. Pittsburgh, PA: InstrumentSocietyofAmerica.
241. ISO Recommendation R-541 (1967). Measurement of Fluid Flow by Means of Orifice Plates and Nozzles.
242. Johnson, V. J., ed. (1960). A compendium of the properties of materials at low temperature, Phase I. Part I: Properties of Fluids. WADD Technical Report 60-56.
243. Jones, H. B. (1963). Transient pressure measuring methods. Aerospace Engineering Report No. 595a, Princeton, NJ: Princeton University.
244. Krause, J. K., Swinehart, P. R. (1985). Reliable wide range divide thermometry. Advances in Cryogenic Engineering (reprinted from Proceedings of the 1985 Cryogenic Engineering Conference).
245. Lawless, W. N. (1972). Thermometric properties of carbon-impregnated porouos glass at low temperatures. Rev. Sct. Instrum. 43(12):1743-1747.
246. Mann, D. B. (1974). Flow measurement instrumentation. ASRDI oxygen technology survey. Vol. VI. NASA SP-3084.
247. (1973). Measurements and Data 7 No. 2, pp. 101-112.
248. Powell, R. L., Bunch, M. D., Caywood, L. P. (1961). Advances in Cryogenic Engineering. Vol. 6. New York: Plenum Press, 537.
249. Powell, R. L., Hall, W. J., Hyink, C. H., Sparks, L. L., Burns, G. W., Scroger, M. G., Plumb, H. H. (1974). Thermocouple reference tables based on IPTS-68. NBS Monograph 125. Boulder, CO: National Bureau of Standards.
250. Rao, M. G. (1982). Semiconductor junctions as cryogenic temperature sensors. Temp. Amer. Inst. Phys. 5:1205-1211.
251. (1983). In: Reed, R. P., Clark, A. F., eds. Materials at Low Temperatures. Metals Park, OH:American Society of Metals.
252. Richards, R. J., Jacobs, R. B., Pestalozzi, W. J. (1960). Measurement of the flow of liquefied gases with sharp-edged orifices. Advances in Cryogenic Engineering. Vol. 4. New York:Plenum Press, pp. 272-285 (reprinted from Proceedings of the 4th Cryogenic Engineering Conference. August 1958).
253. Ricketson, B. W., Grinter, R. (1982). Carbon-glass sensors: reproducibility and polynomial fitting of temperature vs. resistance. Temp. Amer. Inst. Phys. pp. 845-851.
254. Roder, H. M. (1974). Density and liquid level measurement instrumentation for the cryogenic fluids oxygen, hydrogen and nitrogen. ASDRI oxygen technology survey. Vol. V. NASA SP-3083.
255. Rodley, A. E. (1969). Vortex shedding flowmeter. Measurements and Data 18. November-December.
256. Rubin, L. G. (1970). Cryogenic thermometry: a review of recent progress. Cryogenics, Feb. 1970, 14-22.
257. Rubin, L. G., Brandt, B. L., Sample, H. H. (1982a). Cryogenic thermometry: a review of recent progress II. Cryogenics 22(10):491-503.
258. Rubin, L. G., Brandt, B. L., Sample, H. H. (1982b). Cryogenic thermometry: a review of recent progress II. Temp. Amer. Inst. Phys. Vol. 5, Part II, pp. 1333-1344.
259. Sachse, H. B. (1962). Measurement of low temperatures with thermistors. Temperature-Its Measurement and Control in Science and Industry 3. Pt. 2. New York: Reinhold Publishing Corporation. pp. 347-353.
260. Scott, R. B. (1959). Cryogenic Engineering. Princeton, NJ: D. Van Nostrand Company.
261. Scott, R. B. (1960). Proceedings of the 6th ISA National Flight Test Instrumentation Symposium. San Diego, CA, May 2-5.
262. Simon, F. E. (1952). Low Temperature Physics, Four Lectures. New York: Academic Press.
263. Smelser, P. (1963). Pressure measurement in cryogenic systems. Advances in Cryogenic Engineering. Vol. 8. New York: Plenum Press, pp. 378-386.
264. Sparks, L. L. (1974). Low temperature measurement. ASRDI oxygen technology survey. Vol. IV. NASA SP-3073.
265. Sparks, L. L. (1983). Temperature, strain, and magnetic field measurements. Materials at Low Temperature. Metals Park, OH: American Society for Metals.
266. Sparks, L. L., Powell, R. L. (1973). Low temperature thermocouples KP ‘Normal’ silver, copper versus Au-0.02 at.% Fe and Au-0.07 at.% Fe. NBS Technical Note 76A. Washington, DC: US Government Printing Office, pp. 263-283.
267. Swartz, J. M., Gaines, J. R., Rubin, L. G. (1975). Magneto-resistance of carbon-glass thermometers at liquid helium temperatures. Rev. Sci. Instrum. 46(9):1177-1178.
268. van Dijk, H. (1960). Progress in Cryogenics. Vol. 2. New York: Academic Press.
269. Van Dusen, M. J. (1925). Platinum-resistance thermometry at low temperatures. J. Am. Chem. Soc. 47:326.
270. Vaugh, H. (1954). The response characteristics of airplane and missile pressure measuring systems. Sandia Corporation, 174-54-51.
271. White, G. K. (1959). Experimental Techniques in Low Temperature Physics. Oxford, England:Oxford University Press.
272. Barron, R.F. (1999). Cryogenic Heat Transfer. Philadelphia, PA: Taylor & Francis Publishers.
273. Daney, D. E. (1988). Cavitation in flowing superfluid helium. In: Proceedings of space cryogenics. Workshop. Plemum, MA, Butterworth & Co., Ltd., p. 132.
274. DiPirro, M. J., Kittel, P. (1988). The Superfluid on-orbit transfer (SHOOT) flight. Adv. Cryo. Eng. 33:893.
275. Edmonds, D. K., Hord, J. (1969). Cavitation in liquid cyrogenics. Adv. Cryo. Eng. 14:274.
276. (2004). GPSA Engineering Data Book. 12th ed. Gas Processors Suppliers Association, Tulsa OK: 74145, gpa@gasprocessors.com.
277. Jasinski, T., Stacy, W. D., Honkonen, S. C., Sixsmith, H. (1986). A generic pump=compressor design for circulation of cryogenic fluids. Adv. Cryo. Eng. 31:991.
278. Ludtke, P. R., Daney, D. E. (1988). Cavitation characteristics of a small centrifugal pump.Cryogenics 28:96.
279. Scott, R. B. (1959). Cryogenic Engineering. NY: Van Nostrand (the classic in the field, neverout of date).
280. Swartz, E. T. (1995). Efficient cryogenic design, a system approach. J. Low Temp. Phys.101(1=2).
281. Asakura, H., et al. (2000). Performance of 80K turbo compressor system without LN2 cooling for high reliable and efficient helium refrigerator. Advances in Cryogenic Engineering. Vol. 45. Kluwer Academic/Plenum Publishers.
282. Decker, L., et al. (1997). A cryogenic axial-centrifugal compressor for superfluid helium refrigeration. In: Sixteenth International Cryogenic Engineering Conference/International Cryogenic Materials Conference. Elsevier Science.
283. Stehrenberger, W. (1988). Cold compressor development. In: Twelfth International Cryogenic Engineering Conference (ICEC 12), held July 12-15, 1988, in Southampton, UK. Proceedings. Butterworth and Company.
284. Yamamura, H., et al. (1994). Measurements of impurity concentration for a helium compressor.Cryo. Eng. (Japan) Vol. 29, No. 1.
285. Claudet, G., Verdier, J. (1972). Simplified cryogenic reciprocating expansion Engine. In:Proceedings: ICEC4, IPC Business Press Ltd.
286. Danilov, I. B., et al. (1972). Two-stage expansion engine with differential piston. In: Proceedings:ICEC4. IPC Business Press Ltd.
287. Kaneko, J., et al. (1982). Performance of reciprocating expansion engine with electronic control valves. In: Proceedings of the Ninth International Cryogenic Engineering Conference, May 11-14, 1982, Kobe, Japan; Butterworth and Company.
288. Kobayashi, S. (1990). Experimental investigations on the reciprocating expansion engine.Cryogenics 30: September Supplement.
289. Patton, G., et al. (1982). Hydraulically controlled helium expansion engine. Advances in Cryogenic Engineering. Vol. 27. Plenum Press.
290. Von Bredow, H., Vogelhuber, W. W. (1971). Cryogenic expansion engine. US Patent 3,574,998 (April 13, 1971).
291. Haycock, R. (1996). Remote controlled, stepper-motor-activated cryogenic valve: design, development and testing. Proc. SPIE 2814.
292. Haycock, R. (1996). Remote controlled, stepper-motor-activated cryogenic valve: design, development and testing. AIAA Paper 97-3315.
293. Hobbs, W., Kaufman, W. (1979). Design, Development and Testing of Non-modulating Pressure Control Valves. Vol. III. US Dept of Commerce, NIST, Cryogenic Technologies Group, Cryogenic Data Center.
294. Mills, G. L. (1991). Design and development of a leak tight helium II valve with low thermal impact. Advances in Cryogenic Engineering. Vol. 37, Plenum Press.
295. Ratts, E. B., Smith, Jr., J. L., Iwasa, Y. (1994). Design of a cold magnetically-actuated exhaust valve. Advances in Cryogenic Engineering. Vol. 39, Plenum Press.
296. Struzik, L. P. (1979). Design and testing of fire safe cryogenic Valves. US Dept of Commerce, NIST, Cryogenic Technologies Group, Cryogenic Data Center.
297. Alexeev, A. et al. (2000). Study of behavior in the heat exchanger of a mixed gas Joule-Thomson cooler. Advances in Cryogenic Engineering. Vol. 45. Kluwer Academic= Plenum Publishers.
298. Anthony, M. L., Greene, W. D. (1997). Analytical model of an existing propellant densification unit heat exchanger. AIAA/ASME/SAE/ASEE Joint Propulsion Conference and Exhibit, July 6-9.
299. Boyko, V., Siemensmeyer, K. (2001). Pt black powder as a heat exchanger at ultralow temperature. J. Low Temp. Phys. 122(3=4).
300. Darve, Ch. et al. (2000). A He II heat exchanger test unit designed for the LHC interaction region magnets. Advances in Cryogenic Engineering. Vol. 45. Kluwer Academic/Plenum Publishers.
301. Das, S. K., Roetzel, W. (1998). Second law analysis of a plate heat exchanger with an axial dispersive wave. Cryogenics. Vol. 38, No.8.
302. Liang, J. et al. (2000). Test of recuperative pulse tube refrigerator with simplified perforated plate heat exchanger. Advances in Cryogenic Engineering. Vol. 45. Kluwer Academic= Plenum Publishers.
303. Pradeep Narayanan, S., Venkatarathnam, G. (1999). Performance of a counterflow heat exchanger with heat loss through the wall at the cold end. Cryogenics. Vol. 39, No. 1.
304. Venkatarathnam, G., Narayanan, S. P. (1999). Performance of a counter flow heat exchanger with longitudinal heat conduction through the wall separating the fluid streams from the environment. Cryogenics. Vol. 39, No. 10.
305. Yuen, W. W., Hsu, I. C. (1999). An experimental study and numerical simulation of two-phase flow of cryogenic fluids through micro-channel heat exchanger. Cryocoolers. Vol. 10 Kluwer Academic=Plenum Publishers.
306. Zhang, X. S. et al. (1998). The heat transfer characteristics of plate-fin heat exchanger in the field of refrigeration and air-conditioning. In: International Conference on Cryogenics and Refrigeration. International Academic Publishers.
307. Haruyama, T. et al. (1996). Pressure drop of two-phase helium flowing in a large solenoidal magnet cooling path and a long transfer line. Cryogenics. Vol. 36, No. 6.
308. Hasan, A. R. et al. (2000). Modeling of cryogenic transfer line cool down. Advances in Cryogenic Engineering. Vol. 45. Kluwer Academic/Plenum Publishers.
309. Hosoyama, K. et al. (2000). Development of a high performance transfer line system.Advances in Cryogenic Engineering. Vol. 45. Kluwer Academic/Plenum Publishers.
310. Ng, Y. S., Lee, J. G. (1989). Analysis of dewar and transfer line cooldown in superfluid helium on-orbig transfer flight experiment (Shoot). Cryogenic Optical Systems and Instruments III Conference. Proc. SPIE 973.
311. Bonney, G. E., Stubbs, D. M. (1994). Design fundamentals of rapid cooldown JT cryostats and sensors. Proc. SPIE 2227.
312. Commander, J. C., Schwartz, M. H. (1966). Cooldown of large-diameter liquid hydrogen and oxygen lines. Aerojet General Corporation Report 8800-54, NASA CR-54809.
313. Bernard, R. et al. (1997). Thermohydraulic behaviour of He II in stratified co-current twophase flow. In: Sixteenth International Cryogenic Engineering Conference=Interna-International Cryogenic Materials Conference, May 20-24, 1996, in Kitakyushu, Japan; Proceedings, Elsevier Science.
314. Rousset, B. et al. (2000). He II two phase flow in an inclinable 22m long line. Advances in Cryogenic Engineering. Vol. 45. Kluwer Academic/Plenum Publishers.
315. Preclik, D. (1992). Two-phase flow in the cooling circuit of a cryogenic rocket engine.
316. American Institute of Aeronautics and Astronautics Library, AIAA Technical Information Service, 555 W. 57th St., Suite 1200, New York, NY 10019.
317. Wang, J. (1998). Analysis of the fluctuation characteristics of two-phase flow in exchanger of refrigerator. In: International Conference on Cryogenics and Refrigeration, April 21-24, 1998, Zhejian University, Hangzhou, China; Proceedings, International Academic Publishers.
318. Wang, J. et al. (1989). The void fraction measurement in the two phase flow of helium (4.2 K). In: International Conference on Cryogenics and Refrigeration, May 22-26, 1989, at Zhejian University, Hangzhou, China; Proceedings. International Academic Publishers.
319. Yuen, W. W., Hsu, I. C. (1999). An experimental study and numerical simulation of two-phase flow of cryogenic fluids through micro-channel heat exchanger. Cryocoolers. Vol. 10. Kluwer Academic=Plenum Publishers.
320. Bosson, R. et al. (1999). High performance cryogenic ball bearings demonstration. Presented at the 35th AIAA=ASME=SAE=ASEE Joint Propulsion Conference and Exhibit, June 20-24.
321. Ohta, T. et al. (1999). LH2 Turbopump test with hydrostatic bearing. Presented at the 35th AIAA=ASME=SAE=ASEE Joint Propulsion Conference and Exhibit. June 20-24.
322. Soyars, W. M., Fuerst, J. D. (2000). Fermilab cold compressor bearing lifetime improvements.Advances in Cryogenic Engineering. Vol. 45. Kluwer Academic=Plenum Publishers.
323. Carlile, J. A. et al. (1993). Preliminary experimental results for a cryogenic brush seal configuration. Presented at the AIAA/SAE/ASEE Joint Propulsion Conference and Exhibit, 29th, held in Monterey, CA on June 28-30.
324. Haycock, R. H. et al. (1990). A compact indium seal for cryogenic optical windows. Proc. SPIE 1340.
325. Hendricks, R. C. et al. (1990). Brush seal configurations for cryogenic and hot gas applications. In: Advanced Earth-to-Orbit Propulsion Technology Conference held at NASA George C. Marshall Space Flight Center, Huntsville, AL on May 15-17.
326. Hendricks, R. C. et al. (1992). Development of advanced seals for space propulsion turbomachinery. NASA-TM-105659; E-7024.
327. Liu, L. Q., Zhang, L. (2000a). Study on a new type of sealing-regeneration-labyrinth sealing for displacer in cryocoolers: Part I-theoretical study. Cryogenics. Vol. 40, No. 2.
328. Oike, M. et al. (1995). Characteristics of a shaft seal system for the LE-7 liquid oxygen turbopump. Presented at the AIAA/ASME/SAE/ASEE Joint Propulsion Conference and Exhibit, 31st, held in San Diego, CA on July 10-12.
329. Proctor, M. P. (1993). Brush seals for cryogenic applications. In: Annual Propulsion Engineering Research Center Symposium, 5th, held at the Pennsylvania State University, University Park on September 8-9.
330. Arkharov, A. M. et al. (1998). Measurements of void fraction and flow rate of LNG flow. Adv. Cryo. Eng. 43:795-802.
331. Jurns, J. M. et al. (1998). Testing of a buried LNG tank. Adv. Cryo. Eng. 43:1215-1221.
332. Konishi, H., Teramoto, K. (1997). Natural gas gathering, liquefaction and ship transportation for thermal power generation. Cryo. Eng. (Japan) 32(3):6-12.
333. Marrucho, I. M., et al. (1994). An improved extended-corresponding-states theory for natural gas mixtures. Int. J. Thermophys. 15(6):1261-1269.
334. Shi, Y., Gu, A. (1998). The enthalpy and entropy in the LNG process. In: Proceedings of the International Conference on Cryogenics and Refrigeration. International Academic Publishers, pp. 111-114.
335. Suprunova, Z. A., Seriogin, V. E. (1998). Regime of uniform heating of liquid phase during static storage of liquefied natural gas. Cryo. Eng. 43:1223-1228.
336. Yoshimuta, T. (1997). LNG facilities for power plants availability: approved for public release. Cryo. Eng. (Japan) 32(3):13-22.
337. Barber, H. W., Reed, E. E., Sharp, H. R. (1971). Cryo. Ind. Gases. Sept.=Oct.
338. Bellus, M., Gineste, M. (1970). Proceedings of LNG-2. Session III, Paper 2, Paris (October).
339. Burgess, D. S., Murphy, J. N., Zabetakis, M. G. (1970). Hazards associated with the spillage of liquefied natural gas on water. US Bureau of Mines Report 7448.
340. Campbell, J. M. (1975). Gas Conditioning and Processing 2. Campbell Petroleum Series. J. M. Campbell and Co.
341. Chiu, C. H. (1978). Evaluate separation for LNG plants. Hydrocarbon Processing, September, pp. 266-272.
342. Clark, J. A. (1965). A review of pressurization, stratification, and interfacial phenomena.International Advances in Cryogenic Engineering. New York: Plenum Press.
343. Closner, J. J. (1968). Prestressed concrete storage tanks for LNG distribution. In: Conference Proceedings. American Gas Association, May 8.
344. Drake, E. M. (1976). LNG rollover-update. Hydrocarbon Processing. January.
345. Drake, E. M., Geist, J. M., Smith, K. A. (1973a). Hydrocarbon Processing. 87, March.
346. Drake, E. M., Geist, J. M., Smith, K. A. (1973b). Prevent LNG rollover. Hydrocarbon Processing. March.
347. Ffooks, R. C., Montagu, H. E. (1967). Cryogenics. December.
348. (1982). Gas Processing Handbook. Hydrocarbon Processing. Vol. 61, No. 4, p.86-165.
349. Grenier, M. R. (1971). La Centrale d’Oxygene de Fos-sur-Mer. In: XIII Congress of IIR. Washington, D.C.
350. Haynes, M. (1977). Densities of LNG for custody transfer. In: Proceedings of the Fifth International Conference on Liquified Natural Gas. Düsseldorf, Germany.
351. Kataoka, H., Fujisawa, S., Inoue, A. (1970). Utilization of LNG cold for the production of liquid oxygen and liquid nitrogen. In: Proceedings of the Second International Conference and Exhibition on LNG. Paris.
352. Khenat, B., Hasni, T. (1977). The first years of operation of the LNG plant with a discussion of mercury chemical corrosion of aluminum cryogenic exchangers. In: Proceedings of the Fifth International Conference on Liquefied Natural Gas. Düsseldorf, Germany.
353. Kidnay, A. J. (1972). Liquefied natural gas. Mineral Industries Bulletin. Colorado School of Mines, 15, No. 2, March. (1980). In: Kirk, R. E., Othmer, D. F., Grayson, M., Eckroth, D., eds. Encyclopedia of Chemical Technology. Vol. I and II. 3rd ed. New York: John Wiley and Sons, Inc.
354. Kohl, A. L., Riesenfield, F. C. (1959). Today’s processes for gas purification. Chem. Eng.129-130.
355. LNG Information Book (1981). American Gas Association, Arlington, VA.
356. Monfore, G. E., Lentz, A. E. (1962). Physical properties of concrete at very low temperatures. Portland Cement Association Research Bulletin No. 145, Chicago, ILL.
357. Naeve, L. K. (1968). Operating experience of a small LNG plant. In: Proceedings of the First International Conference on LNG. Chicago, ILL, April 7-12.
358. Nakanishi, E., Reid, R. C. (1971). Chem. Eng. Prog. 67(12):36-41.
359. Phannenstiel, L. L., McKinley, C., Sorenson, J. C. (1975). Mercury in natural gas. In:Proceedings of the XIV International Congress of Refrigeration. Moscow.
360. Phannenstiel, L. L., McKinley, C., Sorenson, J. C. (1976). Mercury in natural gas. In: Operating Section Proceedings. American Gas Association, T202 to T204.
361. Picutti, E. (1970). The LNG terminal at La Spezia. In: Proceedings of the Second International Conference and Exhibition on LNG. Paris.
362. Rigola, M. (1970). Recovery of cold in a heavy LNG. In: Proceedings of the Second International Conference and Exhibition on LNG. Paris.
363. Sarsten, J. A. (1972). Pipeline Gas J. 199:37-39.
364. Schoofs, R. J. (1966). Natural gas clean-up prior to liquefaction. Gas.
365. Wenzel, L. A. (1975). LNG peakshaving plants-a comparison of cycles. Advances in Cryogenic Engineering. Vol. 20. New York: Plenum Press, p. 93.
366. Alcorta, J. J. (1998). Cryogenic safety in the United States Antarctic Program. Advances in Cryogenic Engineering. Vol. 43. Plenum Press, pp. 1041-1045.
367. Cassidy, K. (1993). Risk assessment and the safety of large cryogenic systems and plant in the UK and Europe. Cryogenics 33(8):755-76.
368. Stanek, R., Kilmer, J. (1993). Evolution of cryogenic safety at Fermilab. Cryogenics 33(8):809-812.
369. Webster, T. J. (1982). Proceedings of the Ninth International Cryogenic Engineering Conference. Kobe, Japan: Butterworth and Co.
370. American Institute of Chemical Engineers. Safety in Air and Ammonia Plants Vol. 1-10. CEP Technical Manuals.
371. (1968). ASME Boiler and Pressure Vessel Code for Unfired Pressure Vessels, Sec. VIII. New York: American Society of Mechanical Engineers.
372. Bankaitis, H., Scueller, C. F. (1972). ASRDI oxygen technology survey. Vol. II. Clearing requirements, procedures, and verification techniques. NASA SP-3072.
373. Burgoyne, J. H. (1965). Explosion and fire hazards associated with the use of low-temperature industrial fluids. Trans. Insit. Chem. Eng. London 185:CE 7-10.
374. (1961). General Safety Precautions for Missle Liquid Propellants. AFT. O. 11C-1-6 (October).
375. Hauser, R. L., Rumpel, W. F. (1963). Reactions of organic materials with liquid oxygen.Advances in Cryogenic Engineering. Vol. 8. New York: Plenum Press, pp. 242-250.
376. Hauser, R. L., Sykes, G. E., Rumpel, W. F. (1961). Mechanically initiated reactions of organic materials in missle oxidizers. ASD TR 61-324, June 1960-June 1961.
377. Jackson, J. D., Boyd, W. K., Miller, P. D. (1963). Reactivity of Metals with Liquid and Gaseous Oxygen. Battelle Memorial Institute, Defense Metals Information Center. Columbus, OH: DMIC Memo. No. 163 (January).
378. Key, C. F. (1966). Compatibility of Materials with Liquid Oxygen. NASA TMX-53533. Huntsville, AL: NASA George C. Marshall Space Flight Center.
379. Key, C. F., Gayle, J. B. (1966). Effect of liquid nitrogen dilution on LOX impact sensitivity.J. Spacecraft Rockets 3(2):274-276.
380. Key, C. F., Riehl, W. A. (1963). Compatibility of Material with Liquid Oxygen. Huntsville, AL:NASA George C. Marshall Space Flight Center. Internal Report MTP-P & VE-M-63-14 (December).
381. Lapin, A. (1972). Liquid and gaseous oxygen safety review: Final Report. Vols. I-IV. NASA CR-120922.
382. Lewis, B., Von Elbe, G. (1961). Combustion, Flames and Explosions of Gases. 2nd ed. New York: Academic Press.
383. McCamy, C. S. (1957). Survey of hazards of handling liquid oxygen. Indust. Eng. Chem.49(9):81A-82A.
384. McKinley, C. (1962). Safety aspects of cryogenic systems. Applied Cryogenic Engineering. New York: John Wiley and Sons, Inc.
385. McKinley, C., Himmelberger, F. (1957). Oxygen plant safety principles. Chem. Eng. Prog. 53(3):112-121.
386. NASA Kennedy Space Center Safety Office (1965). Liquid Propellants Safety Handbook. Cocoa Beach, FL: NASA Report SP-4-44-s, (April).
387. (1962-63). National Fire Codes Vol. V. Electrical, National Fire Protection Association (NFPA), containing Articles 500-503 and 510-517 of the National Electrical Code, Boston, MA.
388. Neary, R. M. (1961). Safe handling of cryogenic fluids, Paper presented at Chemical Section, National Safety Congress. Chicago, IL (October).
389. NFPA (1962). Flammable liquids and gases, bulk oxygen systems. Vol. 1. NFPA Circular No. 566.
390. Pelouch, J. J., Jr. (1974). ASRDI Oxygen Technology Survey. Vol. VII. Characteristics of metals that influence system safety. NASA SP-3077.
391. Reynales, C. H. (1958). Compatibility of Materials with Oxygen. Douglas Aircraft Company Report D81-444 (October).
392. Reynales, C. H. (1959). Safety aspects in the design and operation of oxygen systems. Douglas Aircraft Company Eng. Paper No. 713 (January).
393. Reynales, C. H. (1961). Selection of lubricants and thread compounds for oxygen missle systems. Advances in Cryogenic Engineering. Vol. 6. New York: Plenum Press, pp. 117-129.
394. Schmidt, H. W., Forney, D. E. (1975). ASRDI Oxygen Technology Survey. Vol. IX. Oxygen systems engineering review. NASA SP-3090.
395. Spencer, E. W. (1964). Cryogenic safety. J. Chem. Educ. p. 41.
396. (1966). Union Carbide Corp. Precautions and safe practices for handling liquefied atmospheric gasses. Publication F-9888. Linde Division.
397. Van Dolah, R. W. (1969). Fire and explosion hazards of cryogenic liquids. Applications of Cryogenic Technology. Los Angeles: Tinon-Brown, Inc.
398. Van Dolah, R. W., Zabetaklis, M. G., Burgess, D. S., Scott, G. S. (1961). Review of fire and explosion hazards of flight vehicle combustibles. ASD TR 61-278, April.
399. Zabetaklis, M. G. (1967). Safety with Cryogenic Fluids. New York: Plenum Press.
400. Zebetakis, M. G., D. S. Burgess (1961). Research on the hazards associated with the production and handling of liquid hydrogen. BM-RI-5707, Bureau of Mines Report of Investigation.
401. Zenner, G. H. (1960). Safety engineering as applied to the handling of liquified atmospheric gasses. Advances in Cryogenic Engineering. Vol. I. New York: Plenum Press, pp. 291-295.