[1] Walsh, M. J., “Riblets as Viscous Drag Reduction Technique”, The American Institute of Aeronautics and Astronautics Journal, Vol. 21, pp. 485-486, (1983).
[2] Bechert, D. W., Bruse, M., Hage, W., Vanderhoeven, J., and Hoppe, G., “Experiments on Drag-reducing Surfaces and their Optimization with an Adjustable Geometry”, Journal of Fluid Mechanics, Vol. 338, pp. 59–87, (1997).
[3] Han, X., Zhang, D. Y., Li, X., and Li, Y. Y., “Bio-replicated Forming of the Biomimetic Drag-reducing Surfaces in Large Area Based on Shark Skin”,Chinese Science Bulletin, Vol. 53, pp. 1587–1592, (2008).
[4] Zhang, D. Y., Luo, Y. H., Li, X., and Chen, H. W., “Numerical Simulation and Experimental Study of Drag-reducing Surface of a Real Shark Skin”, Journal of Hydrodynamics, Vol. 23, pp. 204–211, (2011).
[5] Zhang, D. Y., Li, Y. Y., Han, X., and Li, X., “High-precision Bio-replication of Synthetic Drag Reduction Shark Skin”, Chinese Science Bulletin, Vol. 56, pp. 938-944, (2011).
[6] Zhang, D. Y., Luo, Y. H., Chen, H. W., and Jiang, X. G., “Exploring Drag-reducing Grooved Internal Coating for Gas Pipelines”, Pipeline Gas Journal, Vol. 238, pp. 58–61, (2011).
[7] Leonardo, P. Ch., Arndt, R. E. A., and Sotiropoulos, F., “Drag Reduction of Large Wind Turbine Blades through Riblets: Evaluation of Riblet Geometry and Application Strategies”, Renewable Energy, Vol. 50, pp. 1095-1105, (2013).
[8] Martin, S., and Bhushan, B., “Modeling and Optimization of Shark-inspired Riblet Geometries for Low Drag Applications”, Journal of Colloid and Interface Science, Vol. 474, pp. 206–215, (2016).
[9] Luo, Y. H., and Zhang, D. Y., “Investigation on Fabricating Continuous Vivid Sharkskin Surface by Bio-replicated Rolling Method”, Applied Surface Science, Vol. 282, pp. 370-375, (2013).
[10] Pan, J. F., Chen, H. W., Zhang, D. Y., Zhang, X., Yuan, L. M., and Li, A. B., “Large-scale Solvent-swelling-based Amplification of Micro Structured Sharkskin”, Journal of Micromechanics and Microengineering, Vol. 23, No. 07, (2013).
[11] Wen, L., Weaver, J. C., and Lauder, G. V., “Biomimetic Shark Skin: Design, Fabrication and Hydrodynamic Function”,Journal of Experimental Biology, Vol. 217, pp. 1656-1666, (2014).
[12] Luo, Y. H., Liu, Y. F., and Zhang, D. Y., “Influence of Morphology for Drag Reduction Effect of Sharkskin Surface”, Journal of Mechanics in Medicine and Biology, Vol. 14, No. 02, (2014).
[13] Chen, H. W., Rao, F. G., Shang, X. P., Zhang, D. Y., and Hagiwara, I., “Flow over Bio-inspired 3D Herringbone Wall Riblets”, Experiments in Fluids, Vol. 55, No. 03, (2014).
[14] Luo, Y., Yuan, L., Li, J., and Wang, J., “Boundary Layer Drag Reduction Research Hypotheses Derived from Bio-inspired Surface and Recent Advanced Applications”, Micron Journal, Vol. 79, pp. 59-73, (2015).
[15] Fu, Y.F., Yuan, C.Q., and Bai, X.Q., “Marine Drag Reduction of Shark Skin Inspired Riblet Surfaces”, Biosurface and Biotribology, Vol. 3, pp. 11-24, (2017).
[16] Lam, K., and Cheung, W. C., “Phenomena of Vortex Shedding and Flow Interference of Three Cylinders in Different Equilateral Arrangements”, J. Fluid Mechanics, Vol. 196, pp. 1–26, (1988).
[17] Tatsuno, M., Amamoto, H., and Ishi, I. K., “Effects of Interference Among Three Equidistantly Arranged Cylinders in a Uniform Flow”, Fluid Dynamics Research, Vol. 22, pp. 297–315, (1998).
[18] Zhifu, G., and Tianfeng, S., “Classifications of Flow Pattern on Three Circular Cylinders in Equilateral-triangular Arrangements”, Journal of Wind Engineering and Industrial Aerodynamics, Vol. 89, pp. 553–568, (2001).
[19] Pouryoussefi, S. G., Mirzaei, M., and Pouryoussefi, S. M.,“Force Coefficients and Strouhal Numbers of Three Circular Cylinders Subjected to a Cross-flow”, Archive of Applied Mechanics, Vol. 81, pp. 1725–1741, (2011).
[20] M.A.Lavasani, A., Bayat, H., and Maarefdoost, T.,“Experimental Study of Convective Heat Transfer from In-line Cam Shaped Tube Bank in Crossflow”, Applied Thermal Engineering, Vol. 50, pp. 2605–2611, (2014).
[21] Zhou, B., Wang, X., and Guo, W., “Experimental Measurements of the Drag Force and the Near-wake Flow Patterns of a Longitudinally Grooved Cylinder”, Journal of Wind Engineering and Industrial Aerodynamics, Vol. 145, pp. 30–41, (2015).
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