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References
Avdeev AA (1982) Teploenergetika vol 3 p 23
Avdeev AA (1983a) Gidrodynamika turbulentnyih techeniy puzyrkovoj dwuchfasnoj smesi, Teplofisika visokih temperature, vol 21 no 4 pp 707-715
Avdeev AA (1983b) Hydrodynamics of turbulent bubble two phase mixture, High Temperature Physic, vol 21 no 4 pp 707-715, in Russian
Avdeev AA (1986) Application of the Reynolds analogy to the investigation of the surface boiling in forced convection, High Temperature Physics, vol 24 no 1 pp 111 - 119, in Russian.
Böttenbach H (1975) Strömungswiderstand von quer- und längstangeströmten Stabbündeln, Atomkernenergie vol 26 no 4 pp 229-234
Caraghiaur D, Frid W, Tillmark N (October 4-8, 2004) Detailed pressure drop measurements in single and two phase adiabatic air-water turbulent flows in realistic BWR fuel assembly geometry with spacer grids, The 6th International Conference on Nuclear Thermal Hydraulics, Operations and Safety (NUTHOS-6) Nara, Japan, Paper ID N6P207
Cheng SK and Todreas NE (1986) Hydrodynamic models and correlations for bare and wire-wrapped hexagonal rod bundles – bundle friction factors, subchannel friction factors and mixing parameters, Nucl. Eng. Design vol 92 pp 227-251
Chisholm D (1983) Two-phase flow in pipelines and heat exchanger, George Godwin, London and New York, p 110
Colebrook CF (1939) Turbulent flow in pipes with particular reference to the transition region between the smooth and the rough pipe lows, J. Institution Civil Engineers
Dwyer OE et al. (Oct. 1956) Cross flow of water trough a tube bank at Reynolds numbers up to a million, Industrial and Engineering Chemistry, vol 48 no 10 pp 1836-1846
Friedel L (1979a) Improved friction pressure drop correlation for horizontal and vertical two-phase flow, 3R international, vol 18 no 7 pp 485-491 or in European two-phase flow meeting, Ispra
Friedel L (1979b) New friction pressure drop correlations for upward, horizontal, and downward two - phase pipe flow. Presented at the HTFS Symposium, Oxford, September 1979 (Hoechst AG Reference No. 372217/24 698)
Friedel L (1980) Pressure drop during gas/vapour-liquid flow in pipes, Int. Chemical Engineering, vol 20 pp 352-367
Gaddis ES and Gnielinski V (Jan. 1985) Pressure drop in cross flow across tube bundles, International Chemical Engineering, vol 25 no 1 pp 115
Gunter A Y, Shaw WA (1945) A general correlation of friction factors for various types of surfaces in cross flow, ASME Trans., vol 57 pp 643-660
Haland SE (1983) Simple and explicit formulas for the friction factor in turbulent pipe flow, J. Fluids Eng., vol 98 pp 173-181
Hartnett, JP et al. (1962) Trans. ASME, Ser. C, vol 84-1, pp 82
Hetstroni G (1982) Handbook of multiphase systems. Hemishere Publ. Corp., Washington etc., McGraw-Hill Book Company, New York etc.
Idelchik IE (1975) Handbook of hydraulic resistance, Second edition, Hemisphere, Washington, 1986, translation o a Russian edition
Idelchik IE (1996) Handbook of hydraulic resistance, 3rd Edition, Begell House, Inc. p. 219
Kirilov PL, Yur’ev YuS an Bobkov VP (1990) Handbook of thermal-hydraulic calculations, in Russian, Energoatomizdat, Moscow, Russia, pp 130-132
Lestinen V and Gang P (Oct. 3-8, 1999) Experimental and numerical studies of the flow field characteristics of VVER-440 fuel assembly, Ninth Int. Top. Meeting on Nuclear Thermal Hydraulics, NURETH-9, San Francisco, California
Leung LKH and Hotte G (September 7-9, 1997) A generalized prediction method for single-phase pressure drop in a string of aligned CANDU-type bundles, Proc. 20th CNS Simulation Symp., Niagara-on-the-Lake
Lockhart RW, Martinelli RC (1949) Proposed correlation of data for isothermal two- phase, two- component flow in pipes, Chem. Eng. Prog., vol 45 no 1 pp 39-48
Martinelli RC, Nelson DB (1948) Prediction of pressure drop during forced circulation boiling of water, Trans. ASME, vol 70, p 695
Maubach K (1970) Reibungsgesetze turbulenter Strömungen, Chemie-Ing. Technik vol 42 no 15 pp 995-1004
Minagawa H (1990) Pressure drop for liquid - gas - solid - slug flow, Kobe University, private communication
Nigmatulin BI (1982) Heat and mass transfer and force interactions in annular - dispersed two - phase flow, 7th Int. Heat Transfer Conf., Munich, pp 337-342
Nikuradse J (1932) Gesetzmässigkeiten der turbulenten Strömung in glatten Rohren, Forsch.-Arb.-Ing.-Wesen, VDI_Forschungsheft no 336
Ransom VH et al. (1988) RELAP5/MOD2 Code Manual Volume 1: Code Structure, System Models, and Solution Methods, NUREG/CR-4312 EGG-2396, rev 1, pp 209-216
Rehme K (1968) Widerstandsbeiwert des Na-2 Abstandshalters GfK/PSB-Notiz Nr. 208/68
Rehme K (1971) Laminar strömung in stabbundeln, Chemie-Ing-Tech, vol 43 pp 962-966
Rehme K (1972a) Pressure drop correlations for fuel element spacers, Nuclear Technology, vol 17 pp 15-23
Rehme K (1972b) Pressure drop performance of rod bundles in hexagonal arrangements, Int. J Heat Mass Transfer, vol 15 pp 2499-2517
Rehme K (1973) Simple method of predicting friction factors of turbulent flow in non-circular channels, Int. J. Heat and Mass Transfer, vol 16 pp 933-950
Rehme K (1977) Pressure drop of spacer grids in smooth and roughened rod bundles. Nuclear Technology, vol 31 pp 314-317
Rehme K (1978) The structure of turbulent flow trough a wall subchannel of rods bundle, Nucl. Eng. and Design, vol 45 pp 311-323
Sakagushi T, Minagawa H, Tomyama A, Shakutsui H (1989) Characteristics of pressure drop for liquid - solid two - phase flow in vertical pipes, Reprint from Memories of the faculty of engineering, Kobe University, no 36 pp 63-90
Staengel G, Mayinger F (March 23-24, 1989) Void fraction and pressure drop in subcooled forced convective boiling with refrigerant 12, Proc. of 7th Eurotherm Seminar Thermal Non-Equilibrium in Two-Phase Flow, Roma, pp 83-97
Subbotin VI et al. (1975) Hydrodynamic and heat exchange in nuclear energy facilities, Moskva, Atomisdat (in Russian)
Tomyama A, Sakagushi T, Minagawa H (1990) Kobe University, private comunication
Unal C et al. (1994) Pressure drop at rod-bundle spacers in the post-CHF dispersed flow, Int. J. Multiphase Flow, vol 20 no.3 pp 512-522.
Voj P and Scholven K (Juni 1974) Druckverlustmessungen and Abstandshaltergittern für SNR-300-Brennelement, Techischer Bericht ITB 74.34
Wilkie D (Aug. 1980) Effect of dimensional variation of the effective friction factor of pin-cluster fuel ellemnts, Nucl. Energy, no 4 pp 283-289
Yano T and Aritomi M(October 4-8, 2004) Local pressure drops for a ring-type spacer in vertical annular channel, The 6th International Conference on Nuclear Thermal Hydraulics, Operations and Safety (NUTHOS-6), Nara, Japan,. Paper ID. N6P033
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Kolev, N.I. (2007). Friction Pressure Drop. In: Multiphase Flow Dynamics 2. Springer, Berlin, Heidelberg. https://doi.org/10.1007/3-540-69835-3_3
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