Hydraulic resistance of fluids flowing in channels at supercritical pressures (survey)

Nuclear Engineering and Design

Volumn 231, Issue 2, 2004, Pages 187-197

  Pioro, Igor L ^a   Duffey, Romney B ^a   Dumouchel, Tyler J ^a  

^a ATOMIC ENERGY OF CANADA LIMITED   (Canada)

Author keywords

[No Author keywords available]

Indexed keywords

CARBON DIOXIDE; CHANNEL FLOW; ELECTRIC RESISTANCE; FLUIDS; GEOMETRY; HEAT FLUX; PRESSURE DROP; PRESSURE EFFECTS; WATER;

FLOW OBSTRUCTION; HORIZONTAL TUBES; HYDRAULIC RESISTANCE; SUPERCRITICAL PRESSURE;

HYDRAULICS;

EID: 2942569588     PISSN: 00295493     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.nucengdes.2004.03.001     Document Type: Article

References (34)

1. Chakrygin V.G. Calculating pressure losses in heated tubes at supercritical pressures. Therm. Eng. 11(10):1964;95-100.
2. Chakrygin, V.G., 1965. Calculations of pressure drop in heated tubes at supercritical pressures ( p=230 -350 ata). In: Trans. of TsKTI "Boiler-Turbine Engineering", Issue 59, Leningrad, Russia, pp. 82-89 (in Russian).
3. Chakrygin V.G. The effect of non-uniform heating on pressure losses at supercritical pressures. Therm. Eng. 14(1):1967;77-83.
4. Chakrygin, V.G., Agafonov, M.B., Letyagin, I.P., 1974. Experimental determination of the limits of aperiodic instability at very high and supercritical pressures. Therm. Eng. (1), 17-22.
5. Dyadyakin, B.V., Popov, A.S., 1977. Heat transfer and thermal resistance of tight seven-rod bundle, cooled with water flow at supercritical pressures. Trans. VTI (11), 244-253 (in Russian).
6. Filonenko, G.K., 1954. Hydraulic resistance of the pipelines. Therm. Eng. (4), 40-44 (in Russian).
7. Ishigai, S., Kadgi, M., Nakamoto, M., 1976. Heat transfer and friction for water flow in tubes at supercritical pressures. In: Teplomassoobmen (Heat-Mass-Transfer)-V, Proceedings of Vth All-Union Conference on Heat Mass Transfer, Minsk, Belarus, May, Part 1, vol. 1, pp. 261-269.
8. Kirillov, P.L., Yur'ev, Yu.S., Bobkov, V.P., 1990. 3.2. Flow hydraulic resistance of the working fluids with significantly changing properties, pp. 66-67. 8.4. Working fluids at near-critical state, pp. 130-132. In: Handbook of Thermal-Hydraulics Calculations. Energoatomizdat Publ. House, Moscow, Russia.
9. Kondrat'ev N.S. Heat transfer and hydraulic resistance with supercritical water flowing in tubes. Therm. Eng. 16(8):1969;73-77.
10. Krasyakova L.Yu., Belyakov I.I., Fefelova N.D. Hydraulic resistance with isothermal and nonisothermal flow of medium at supercritical pressure. Therm. Eng. 20(4):1973;45-50.
11. Kuraeva I.V., Protopopov V.S. Mean friction coefficients for turbulent flow of a liquid at a supercritical pressure in horizontal circular tubes. High Temp. 12(1):1974;194-196.
12. Kurganov V.A., Ankundinov V.B., Kaptil'nyi A.G. Experimental study of velocity and temperature fields in an ascending flow of carbon dioxide at supercritical pressure in a heated vertical tube. High Temp. 24(6):1986;811-818.
13. Kurganov V.A., Kaptil'nyi A.G., Ankundinov V.B. Total flow resistance and fluid friction associated with ascending and descending supercritical fluid flow in heated pipes. High Temp. 27(1):1989;87-94.
14. Mikheev, M.A., 1956. Fundamentals of Heat Transfer. Gosenergoizdat Publishing House, Moscow, Russia (in Russian).
15. Ornatskiy, A.P., Dashkiev, Yu.G., Perkov, V.G., 1980. Steam Generators of Supercritical Pressures. Vyscha Shkola Publishing House, Kiev, Ukraine, pp. 35-36 (in Russian).
16. Petukhov B.S., Kurganov V.A., Ankudinov V.B. Heat transfer and flow resistance in the turbulent pipe flow of a fluid with near-critical state parameters. High Temp. 21(1):1983;81-89.
17. Petukhov B.S., Kurganov V.A., Ankudinov V.B., Grigor'ev V.S. Experimental investigation of drag and heat transfer in a turbulent flow of fluid at supercritical pressure. High Temp. 18(1):1980;90-99.
18. Petukhov B.S., Medvetskaya N.V. Calculation of turbulent flow and heat transfer in the heated tubes for single-phase working fluids at near-critical state. High Temp. 17(2):1979;287-294.
19. Petukhov B.S., Medvetskaya N.V. Turbulent flow and heat exchange in vertical pipes under conditions of strong influence of upward forces. High Temp. 16(4):1978;665-672.
20. Pioro, I.L., Duffey, R.B., 2003a. Literature survey of the heat transfer and hydraulic resistance of water, carbon dioxide, helium and other fluids at supercritical and near-critical pressures. Report AECL-12137/FFC-FCT-409, Chalk River Laboratories, AECL, April, ISSN 0067-0367, 182 pp.
21. Pioro, I., Duffey, R., 2003b. Experimental heat transfer to water flowing in channels at supercritical pressures (survey). In: Proceedings of ANS/ENS International Winter Meeting and Nuclear Technology Expo, Embedded Topical Meeting GLOBAL 2003 "Advanced Nuclear Energy and Fuel Cycle Systems", New Orleans, Louisiana, USA, November 16-20.
22. Pioro, I.L., Khartabil, H.F., Duffey, R.B., 2003. Heat transfer at supercritical pressures (survey). In: Proceedings of 11th International Conference on Nuclear Engineering (ICONE-11), Shinjuku, Tokyo, Japan, April 20-23, Paper No. 36454, 13 pp.
23. Popov, V.N., 1967. Theoretical calculation of heat transfer and friction resistance for supercritical carbon dioxide. In: Gazley Jr., C., Hartnett, J.P., Ecker, E.R.C. (Eds.), Proceedings of Second All-Soviet Union Conference on Heat and Mass Transfer, Minsk, Belarus, May, 1964, Published as Rand Report R-451-PR, vol. 1, pp. 46-56.
24. Popov V.N. Heat-transfer process and turbulent flow of compressible fluid in circular tube. High Temp. 15(4):1977;670-675.
25. Popov V.N. The effects of free convection on turbulent transport for a liquid flowing in a vertical channel. High Temp. 21(3):1983;393-401.
26. Popov V.N., Belyaev V.M., Valueva E.P. Heat transfer and hydraulic drag in a turbulent flow of helium in a circular tube at supercritical pressure. High Temp. 16(5):1978;864-871.
27. Popov V.N., Petrov N.E. Calculation of heat transfer and flow resistance in the turbulent pipe flow of cooled carbon dioxide in the supercritical region. High Temp. 23(2):1985;255-262.
28. Razumovskiy, V.G., 1984. Heat transfer and hydraulic resistance of smooth channels at turbulent flow of water of supercritical pressure. Ph.D. thesis, Institute of Engineering Thermal Physics, Academy of Sciences, Kiev, Ukraine, 24 pp. (in Russian).
29. Razumovskiy, V.G., 2003. Private Communications. State Technical University "KPI", Kiev, Ukraine.
30. Razumovskiy V.G., Ornatskiy A.P., Maevskiy E.M. Hydraulic resistance and heat transfer of smooth channels with turbulent flow of water of supercritical pressure. Therm. Eng. 31(2):1984;109-113.
31. Razumovskiy V.G., Ornatskiy A.P., Maevskiy E.M., Igol'nikova N.V. Determination of coefficients of hydraulic resistance at turbulent flow of water of supercritical pressure in smooth channels. Appl. Therm. Sci. 7(5):1985;26-28. (in Russian).
32. Sinitsyn A.T. Theoretical determination of the existence region of high-frequency oscillations in a liquid under supercritical pressure. High Temp. 18(6):1980;904-907.
33. Tanaka H., Tsuge A., Hirata M., Nishiwaki N. Effects of buoyancy and acceleration owing to thermal expansion on forced turbulent convection in vertical circular tubes - criteria of the effects, velocity and temperature profiles, and reverse transition from turbulent to laminar flow. Int. J. Heat Mass Transfer. 16:1973;1267-1288.
34. Tarasova N.V., Leont'ev A.I. Hydraulic resistance during flow of water in heated pipes at supercritical pressures. High Temp. 6(4):1968;721-722.