International Scientific Journal


Isothermal pressure drop experiments were carried out for the steady Newtonian fluid flow in Archimedean spiral tube with transverse corrugations. Pressure drop correlations and stability criteria for distinguishing the flow regimes have been obtained in a continuous Reynolds number range from 150 to 15 000. The characterizing geometrical groups which take into account all the geometrical parameters of Archimedean spiral and corrugated pipe has been acquired. Before performing experiments over the Archimedean spiral, the corrugated straight pipe having high relative roughness e/d = 0.129 of approximately sinusoidal type was tested in order to obtain correlations for the Darcy friction factor. Insight into the magnitude of pressure loss in the proposed geometry of spiral solar receiver for different flow rates is important because of its effect upon the efficiency of the receiver. Although flow in spiral and corrugated geometries has the advantages of compactness and high heat transfer rates, the disadvantage of greater pressure drops makes hydrodynamic studies relevant. [Projekat Ministarstva nauke Republike Srbije, br. III 42006 i br. TR 33015]
PAPER REVISED: 2015-07-28
PAPER ACCEPTED: 2015-11-22
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THERMAL SCIENCE YEAR 2016, VOLUME 20, ISSUE Issue 2, PAGES [579 - 591]
  1. Ali, S., Seshadri, C., Pressure Drop in Archimedean Spiral Tubes, Industrial and Engineering Chemistry Process Design and Development, 10 (1971), 3, pp. 328-332.
  2. Naphon, P., Wongwises, S., A Review of Flow and Heat Transfer Characteristics in Curved Tubes, Renewable and Sustainable Energy Reviews, 10 (2006), 5, pp. 463-490.
  3. Naphon, P., Wongwises, S., An Experimental Study on the In-tube convective Heat Transfer Coefficients in a Spiral Coil Heat Exchanger, International Communications in Heat and Mass Transfer, 29 (2002), 6, pp. 797-809.
  4. Naphon, P., Suwagrai, J., Effect of Curvature Ratios on the Heat Transfer and Flow Developments in the Horizontal Spirally Coiled Tubes, International Journal of Heat and Mass Transfer, 50 (2007), 3-4, pp. 444-451.
  5. Yoo, G. et al., Fluid Flow and Heat Transfer of Spiral Coiled Tube: Effect of Reynolds Number and Curvature Ratio, Journal of Central South University, 19 (2012), 2, pp. 471-476.
  6. Bowman, A., Park, H., CFD Study on Laminar Flow Pressure Drop and Heat Transfer Characteristics in Toroidal and Spiral Coil System, Proceedings, ASME 2004 International Mechanical Engineering Congress and Exposition, Anaheim, California, 2004, IMECE2004-59879.
  7. Altaç, Z., Altun, Ö., Hydrodynamically and Thermally Developing Laminar Flow in Spiral Coil Tubes, International Journal of Thermal Sciences, 77 (2014), pp. 96-107.
  8. Perry, A. et al., Rough Wall Turbulent Boundary Layers, Journal of Fluid Mechanics, 37 (1969), 2, pp. 383-413.
  9. Tani, J., Turbulent Boundary Layer Development Over Rough Surfaces, in: Perspectives in Turbulence Studies (Eds. U. Meier, P. Bradshaw), Springer Verlag, 1987, pp 223-249.
  10. Jaiman, R. et al., CFD Modeling of Corrugated Flexible Pipe, Proceedings, 29th International Conference on Offshore Mechanics and Arctic Engineering, Shanghai, China, 2010.
  11. Pisarenko, M. et al., Friction Factor Estimation for Turbulent Flows in Corrugated Pipes With Rough Walls, Journal of Offshore Mechanics and Arctic Engineering, 133 (2011), 1, pp. 011101-1-10.
  12. Vijiapurapu, S., Cui, J., Simulation of Turbulent Flow in a Ribbed Pipe Using Large Eddy Simulation, Numerical Heat Transfer, Part A, 51 (2007), 12, pp. 1137-1165.
  13. Bernhard, D., Hsieh, C., Pressure Drop in Corrugated Pipes, Journal of Fluids Engineering, 118 (1996), 2, pp. 409-410.
  14. Taylor, J. et al., Characterization of the Effect of Surface Roughness and Texture on Fluid Flow - Past, Present and Future, International Journal of Thermal Sciences, 45 (2006), 10, pp. 962-968.
  15. Pliable Corrugated Stainless Steel Resistant to Corrosion CSST Tubes for Plumbing, Heating Systems and Thermal Solar Plants, Eurotis S.l.r., Italy,
  16. Revised Release on the IAPWS Formulation 1995 for the Thermodynamic Properties of Ordinary Water Substance for General and Scientific Use (September 2009), IAPWS,
  17. Kline, S., McClintok, F., Describing Uncertainties in Single-Sample Experiments, Mechanical Engineering, 75 (1953), 1, pp. 3-8.
  18. Hetsroni, G. et al., Micro-Channels: Reality and Myth, Journal of Fluids Engineering, 133 (2011), 12, pp 121202-1-14.
  19. Kandlikar, S. et al., Characterization of Surface Roughness Effects on Pressure Drop in Single-phase Flow in Minichannels, Physics of Fluids, 17 (2005), 5, pp. 100606-(1-11).
  20. Colebrook, C., Turbulent Flow in Pipes, with Particular Reference to the Transition Region Between the Smooth and Rough Pipe Laws , Journal of the Institution of Civil Engineers, 11 (1938 - 1939), pp. 133 - 156.
  21. Moody, L., Friction Factors for Pipe Flow, Transactions of the American Society of Mechanical Engineers, 66 (1944), pp. 671 - 684.
  22. Fang, X. et al., New Correlations of Single-phase Friction Factor for Turbulent Pipe Flow and Evaluation of Existing Single-phase Friction Factor Correlations, Nuclear Engineering and Design, 241 (2011), 3, pp. 897-902.
  23. Churchill, S., Friction Factor Equations Spans All Fluid Flow Ranges, Chemical Engineering, 84 (1977), pp. 91-102.
  24. Schroeder, D., A Tutorial on Pipe Flow Equations, Stoner Associates, Inc., Carlisle, USA, 2001.
  25. Chen, N., An Explicit Equation for Friction Factor in Pipe, Industrial and Engineering Chemistry Fundamentals, 18 (1979), 3, pp. 296-297.
  26. Kubair, V., Kuloor, N., Flow of Newtonian Fluids in Archimedean Spiral Tube Coils: Correlation of the Laminar, Transition and Turbulent Flows, Indian Journal of Technology, 4 (1966), 1, pp. 3-8.
  27. Rennels, D., Hudson, H., Pipe Flow - A Practical and Comprehensive Guide, John Wiley and Sons Inc., Hoboken, USA, 2012.
  28. White, C., Streamline flow trough curved pipes, Proceedings of the Royal Society, Ser. A, 123 (1929), pp. 645-663.
  29. Adler, M., Strömung in gekrümmten Rohren (Flow in curved pipes), Zeitschrift für Angewandte Mathematik und Mechanik (Journal of Applied Mathematics and Mechanics), 14 (1934), 5, pp. 257-275.

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