Abstract
In this chapter, we will discuss the theory of heat pipe with an approach that our readers have no knowledge of advanced mathematics, physics, and heat pipe. We cover the basic science and technology behind the heat pipe. Whenever we had to refer to basic knowledge of physics, fluid mechanics, and gas dynamics, Wiki site or very basic physics books to give the reader some general idea of specific topics of discussion in the particular section of this chapter along with heat pipe science were utilized. This section covers the fundamental theory behind the heat pipe based on different research papers and books available at present time in order to open a clear path for reader to design and fabricate their required heat pipe within their applications.
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References
Dhananjay Dilip Odhekar Master of Science, August 8, 2005 (B.E. Mech, K.K.W.C.O.E., University of Pune, 1999).
Kishimoto, T. (1994). Flexible-heat-pipe cooling for high-power devices. The International Journal of Microcircuits and Electronic Packaging, 17(2), 98–107.
Lu, S., & Li, H.-S. (1999). Oscillatory mode with extremely high heat transfer rate in a flexible heat pipe. Inter PACK ‘99: Pacific RIM/A SME International Intersociety Electronics Photonic Packaging Conference ‘Advances in Electronic Packaging 1999’, Maui.
Bliss Jr., F. E., Clark Jr., E. G., & Stein, B. (1970). Construction and test of a flexible heat pipe. ASME Conference Paper.
Dunn, P. D., & Reay, D. A. (1994). Heat pipes (4th ed.). New York: Pergamon.
Marcus, B. D. Theory and design of variable conductance heat pipes: Control techniques. Research Report 2, Ames Research Center, National Aeronautics and Space Administration. 13111-6027-R0-00.
Marcus, B. D. (1971). Heat pipes: Control techniques. Report 2, NASA Contract No. NAS2-5503.
Bienert, W. (1969). Heat pipes for temperature control. In Proceedings of the Fourth Intersociety Energy Conversion Conference, Washington, DC (pp. 1033–1041).
Faghri, A. (1995). Heat pipe science and technology. Washington, DC: Taylor & Francis.
Busse, C. A. (1969). Heat pipe thermionic converter research in Europe. Paper #699105, Proc. Fourth Intersociety Energy Conversion Engineering Conf., Washington, DC.
Levy, E. K. (1968). Theoretical investigation of heat pipes operating at low vapor pressure. Journal of Engineering, 90, 547–552.
Wayner Jr., P. C. (1999). Long range intermolecular forces in change-of-phase heat transfer. Proc. 33rd National Heat Transfer Conference, Albuquerque, NM, August 15–17, 1999.
Kemme, J. E. (1978). Ultimate heat-pipe performance. IEEE Transaction on Electron Devices, ED-16, 717–723.
Deverall, J. E., Kemme, J. E., & Florschuetz, L. W. (1970, September). Sonic limitations and startup problems of heat pipes. Los Alamos Scientific Laboratory Report No. LA-4578.
Carey, V. P. (1992). Liquid-vapor phase-change phenomena. Washington, DC: Taylor and Francis.
Spivak, M. (1999). A comprehensive introduction to differential geometry (3rd ed., Vols. 3–4). Publish or Perish Press, ISBN 0-914098-72-1 (Vol. 3), ISBN 0-914098-73-X (Vol. 4).
Peterson, G. P. (1994). An introduction to heat pipes—Modeling, testing and applications. New York: John Wiley & Sons.
Chi, S. W. (1976). Heat pipe theory and practice. New York: McGraw-Hill.
Ferrell, K. J., & Alleavitch, J. (1969). Vaporization heat transfer in capillary wick structures. Preprint No. 6, ASME-AIChE Heat Transfer Conf., Minneapolis, MN.
Eninger, J. E. (1975). Capillary flow through heat pipe wicks. Paper No. 75-661. Washington, DC: AIAA. American Institute of Aeronautics and Astronautics.
Colwell, G. T., & Chang, W. S. (1984). Measurements of the transient behavior of a capillary structure under heavy thermal loading. International Journal of Heat and Mass Transfer, 27(4), 541–551.
Silverstein, C. C. (1992). Design and technology of heat pipes for cooling and heat exchange. Washington, DC: Taylor and Francis.
Busse, C. A. (1973). Theory of the ultimate heat transfer of cylindrical heat pipes. International Journal of Heat and Mass Transfer, 16, 169–186.
Wageman, W. E., & Guevara, F. A. (1960). Fluid flow through a porous channel. Physics of Fluids, 3(6), 878–881.
Mehta, R. C., & Jayachandran, T. (1996). Numerical analysis of transient two phase flow in heat pipe. Heat and Mass Transfer, 31, 383–386.
Cotter, T. P. (1967). Heat pipe startup dynamic. Proc. SAE Thermionic Conversion Specialist Conference, Palo Alto, California.
Dunn, P. D., & Reay, D. A. (1982). Heat pipes (3rd ed.). New York: Pergamon.
Kemme, J. E. (1967). High performance heat pipe. Proc. 1967 Thermionic Conversion Specialist Conference, Palo Alto, California, October 1967.
Bankston, C. A., & Smith, J. H. (1971). Incompressible laminar vapor flow in cylindrical heat pipes. ASME-71-WA/HT-15. New York: ASME.
Rohani, A. R., & Tien, C. L. (1974). Analysis of the effects of vapor pressure drop on heat pipe performance. International Journal of Heat and Mass Transfer, 17, 61–67.
Ivanovskii, M. N., Sorokin, V. P., & Yagodkin, I. V. (1982). The physical properties of heat pipes. Oxford: Clarendon.
Vinz, P., & Busse, C. A. Axial heat transfer limits of cylindrical sodium heat pipes between 25 W-cm −2 and 15.5 kW-cm −2. Proc. 1st International Heat Pipe Conference, Stuttgart, Germany, Paper 2-1.
Kroliczek, E. J., & Brennan, P. J. (1983). Axial grooved heat pipes—Cryogenic through ambient. ASME Paper 73-ENAc-48. Presented at the Intersociety Conference on Environmental System, San Diego, California 1983.
Alario, J., Brown, R., & Kosson, R. (1983). Monogroove heat pipe development for the space constructible radiator system. AIAA-83-1431. Presented at the AAIA 18th Thermophysics Conference, Montreal, Canada, June 1983.
ICICLE Feasibility Study, Final Report, NASA Contract NAS 5-21039, RCA-Defense Electronic Product, Camden, New Jersey, NASA-CR-112308.
Shah, R. K., & Giovannelli, A. D. (1988). Heat pipe heat exchanger design theory. In R. K. Shah, E. C. Subbarao, & R. A. Mashelkar (Eds.), Heat transfer equipment design. Washington, DC: Hemisphere Publishing.
Hendrix, W. A. (1989). An analysis of body force effects on transient and steady-state performance of heat pipes. Ph.D. Dissertation, Georgia Institute of Technology.
Cassel, S. D. (1991). The effect of increasing length on the overall conductance and capacitance of long heat pipes. Ph.D. Dissertation, Georgia Institute of Technology.
Wells, K. J., Colwell, G. T., & Berry, J. T. (1985). Two-dimensional numerical simulation of casting solidification with heat pipe controlled boundary conditions. America Foundryman’s Society Transactions, 1, 84–95.
Modlin, J. M., & Colwell, G. T. (1992). Surface cooling of scramjet engine inlets using heat pipe, transpiration, and film cooling. AIAA Journal of Thermophysics and Heat Transfer, 6(2), 500–504.
Ingram, T. J., Haman, L. L., Andes, G. M., Colwell, G. T., & Wepfer, W. J. (1984). Non-metallic heat pipes for flue gas reheat. Report No. 84-JPGC-APC-7. New York: American Society of Mechanical Engineers.
Kays, M. W. (1966). Convective heat and mass transfer. New York: McGraw-Hill.
Marcus, B. D. (1972, April). Theory and design of variable conductance heat pipes. NASA CR-2018.
Brennan, P. J., & Kroliczek, E. J. (1979). Heat pipe design handbook (Vols. I and II). Contract Report No NAS5-23406. Washington, DC: National Aeronautics and Space Administration.
Luikov, A. V. (1972). Heat and mass transfer in capillary-porous bodies. London: Pergamon Press.
Bird, R., Stewart, W., & Lightfoot, E. (1960). Transport phenomena. New York: John Wiley & Sons.
Von Karman, T. (1935). The problem of resistance in compressible fluids. In Proc. 5th Volta Congr., Rome, November 1935 (pp. 255–264).
Busse, C. A. (1967). Pressure drop in the vapor phase of long heat pipes. In Proceedings of the IEEE International Thermionic Conversion Specialist Conferences. New York: IEEE.
Cotter, T., Grover, G., & Erickson, G. (1964). Structures of very high thermal conductance. Journal of Applied Physics, 35(6), 1990–1991.
Hwang, G. S., Kaviany, M., Anderson, W. G., & Zuo, J. (2007). Modulated wick heat pipe. International Journal of Heat and Mass Transfer, 50, 1420–1434.
Anderson, W. G., Sarraf, D., & Dussinger, P. M. (2005). Development of a high temperature water heat pipe radiator. In Proceedings of the International Energy Conversion Engineering Conference (IECEC), San Francisco, ISBN 1563477696.
Anderson, W. G., Bonner, R., Hartenstine, J., & Barth, J. (2006). High temperature titanium–water heat pipe radiator. In Space Technology & Applications International Forum (STAIF) Conference (Vol. 813, pp. 91–99). New York: American Institute of Physics.
Alario, J., Haslett, R., & Kosson, R. (1981). The monogroove high performance heat pipe. AIAA-81-1156. New York: American Institute of Aeronautics and Astronautics.
Alario, J., Brown, R., & Kosson, R. (1983). Monogroove heat pipe development for the space constructible radiator system. AIAA-83-1431. Presented at the AIAA 18th Thermophysics Conference, Montreal, Canada, June 1983.
Mai, T. D., Chen, A. L., Sifuentes, R. T., & Cornwell, J. D. (1994, June). Space constructible radiator (Scr) life test heat pipe performance testing and evaluation. Document Number: 941437.
Alario, J., Haslett, R., & Kossor, R. (1981). The monogroove high performance heat pipe. AIAA-81-1156. New York: American Institute of Aeronautics and Astronautics.
Loh, C. K., Harris, E., & Chou, D. J. (2005). Comparative study of heat pipes performances in different orientations. In Semiconductor Thermal Measurement and Management Symposium, 2005 I.E. Twenty First Annual IEEE, 15–17 March 2005 (pp. 191–195).
Riehl, R. R., & dos Santos, N. Loop heat pipe performance enhancement using primary wick with circumferential grooves. National Institute for Space Research, Space Mechanics and Control Division, DMC/Satélite, Av. dos Astronautas 1758, 12227-010 São Jose dos Campos, SP, Brazil.
Hsu, H.-C. (2005, November 10). Wick structure of heat pipe. United States Patent number US 2005/0247436 A1.
Sarraf, D. B., & Anderson, W. G. High-temperature water heat pipes. Advanced Cooling Technologies, Inc. 1046 New Holland Ave. Lancaster, PA 17601.
Gorring, R. L., & Churchill, S. W. (1961). Thermal conductivity of heterogeneous materials. Chemical Engineering Progress, 57(7), 53–59.
Chi, S. W. (1971). Mathematical modeling of high and low temperature heat pipes. George Washington University Report to NASA, Grant No. NGR bzohu00 09-010-070, December 1971.
Marcus, B. D. (1972, April). Theory and design of variable conductance heat pipes. Report No. NASA CR, 2018, National Aeronautics and Space Administration, Washington, DC.
Wallis, G. B. (1969). One-dimensional two-phase flow. New York: McGraw-Hill.
Griffith, P., & Wallis, J. D. (1960). The role of surface conditions in nucleate boiling. ASME-AIChE Heat Transfer Conference, August 1959. Published in Chemical Engineering Progress Symposium Series (Vol. 56). AIChE.
Rohsenow, W. M., & Choi, M. (1961). Heat, mass, and momentum transfer. Englewood Cliffs, NJ: Prentice-Hall.
Busse, C. A. (1967). Pressure drop in the vapor phase of long heat pipes. Palo Alto, CA: Thermionic Conversion Specialists.
Bystrov, P. I., & Popov, A. N. (1978). International Heat Pipe Conference, 3rd, Palo Alto, Calif., May 22–24, 1978. Technical Papers. (A78-35576 14-34) (pp. 21–26). New York: American Institute of Aeronautics and Astronautics.
Ochterbeck, J. M. (2003). Heat pipes, Chapter 16. In A. Bejan & A. D. Kraus (Eds.), Heat transfer handbook. Hoboken, NJ: John Wiley & Sons.
Phillips, E. C. Low-temperature heat pipe research program. NASA Report No. NASA CR-66792.
Gerrels, E. E., & Larson, J. W. (1971). Brayton cycle vapor chamber (heat pipe) radiator study. NASA CR-1677.
Joy, P. (1970). Optimum cryogenic heat pipe design. ASME Paper 70-HT/SpT-7. New York: American Society of Mechanical Engineers.
Bergles, A. E., & Rohsenow, W. M. (1954). A.S.M.E. Transaction, Journal of Heat Transfer. Transactions of ASME 76, 553–562.
Kemme, J. E. (1966, August). Heat pipe capability experiments. Los Alamos Scientific Laboratory, Report LA-3585.
Van Andel, E. (1969). Heat pipe design theory. Euratom Center for Information and Documentation. Report EUR No. 4210 e, f.
Busse, C. A. (1973). Theory of the ultimate heat transfer limit of cylindrical heat pipes. International Journal of Heat and Mass Transfer, 16, 169–186.
Anon. (1980). Heat pipes—General information on their use, operation and design. Data Item No. 80013, Engineering Sciences Data Unit, London.
Faghri, A. (1974). Continuum transient and frozen funding numbers startup behavior of conventional and gas-loaded heat pipes. Final Report, Department of Mechanical and Materials Engineering Wright State University, Dayton OH, February 1974.
Sockol, P. M., & Forman, R. Re-examination of heat pipe startup. NASA Lewis Research Center, Cleveland, Ohio, Technical Paper, NASA TMX-52924.
Ochterbeck, J. M., & Peterson, G. P. (1993). Freeze/thaw characteristic of a copper-water heat pipe: Effects of non-condensable gas charge. AIAA Journal of Thermophysics and Heat Transfer, 7(1), 127–132.
Antoniuk, D., & Edwards, D. K. (1990). Depriming of arterial gas-controlled heat pipes. Proc. 7th Int’l Heat Pipe Conf., Minsk, USSR, May 1990.
Edwards, D. K., & Marcus, B. D. (1972). Heat and mass transfer in the vicinity of the vapor-gas front in a gas-loaded heat pipe. ASME Journal of Heat Transfer, 94, 155–162.
Merrigan, M. A., Keddy, S. E., & Sena, J. T. (1985). Transient heat pipe investigation for space power systems. Report No. LA-UR-85-3341. Los Alamos, NM: Los Alamos National Laboratory.
Abramenko, A. N., Kanonchik, L. E., & Prokhorov, Y. M. (1986). Startup dynamics of an arterial heat pipe from the frozen or chilled state. Journal Engineering Physics, 51(5), 1283–1288.
Bowman, W. (1990, June). Transient heat-pipe modeling. The frozen start-up problem. Paper No. 90-1773, AIAA/ASME 5th Joint Thermophysics and Heat Transfer Conference, Seattle, WA. Washington, DC: American Institute of Aeronautics and Astronautics.
Jang, J. H., Faghri, A., Chang, W. S., & Mahefkey, E. T. (1990). Mathematical modeling and analysis of heat pipe start-up from frozen sate. ASME Journal of Heat Transfer, 112, 586–594.
Levy, E. K. (1971). Effects of friction on the sonic velocity limit in sodium heat pipes. Proc. 6th AIAA Thermophysics Conf.
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Zohuri, B. (2016). Heat Pipe Theory and Modeling. In: Heat Pipe Design and Technology. Springer, Cham. https://doi.org/10.1007/978-3-319-29841-2_2
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DOI: https://doi.org/10.1007/978-3-319-29841-2_2
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