Using the Propeller Pre-Swirl Stator to Reduce Underwater Vehicle Roll Motion and Increase Propeller Efficiency

Document Type : Research Article

Authors

1 Department of Maritime Engineering, Amirkabir University of Technology, Tehran, Iran.

2 Imam Hossein Comprehensive University, Tehran, Iran

Abstract

Pre-swirl stators can operate as a device to improve the hydrodynamic performance of the propeller and reduce the excess propeller torque on the underwater vehicle. This excess torque on the underwater vehicle with a circular cross-section can cause harmful rolling motion. The most important and influential parameters in the design of these stators are the chord length, distance from the propeller, and angle of attack. In this paper, these parameters are investigated using the Taguchi method and stator design to simultaneously reduce the underwater vehicle roll motion (reduction of excess propeller torque) and increase propeller efficiency using computational fluid dynamics with the help of commercial software STAR-CCM+. To validate the calculations, the numerical simulation results of a B-series propeller are compared with the existing experimental test, the numerical results are obtained with less than ten error percentages compared to the experimental results.  The Grid Convergence Index has also been used to ensure the independence of the results obtained from the mesh. The final stator designed in this paper reduces the total propulsion torque by 44.47% compared to the non-stator mode and improves efficiency by 2.29%. Also, the designed stator reduces the vortex of the blade tip and the propeller hub.

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Main Subjects

References

[1] A. Nadery, H. Ghassemi, L. Chybowski, The effect of the PSS configuration on the hydrodynamic performance of the KP505 propeller behind the KCS, Ocean Engineering, 234 (2021) 109310.
[2] F. Çelik, M. Güner, Energy saving device of stator for marine propellers, Ocean Engineering, 34(5-6) (2007) 850-855.
[3] F. Mewis, H. Peters, Power Savings through a Novel Fin System, in:  SMSSH Conference, Varna, Bulgaria., 1986, pp. 9.
[4] S.H. Van, M.C. Kim, J.T. Lee, Some remarks on the powering performance prediction method for a ship equipped with a preswirl stator–propeller system, in:  20st International Towing Tank Conference, San Francisco, California, 1993.
[5] S.H. Van, J.T. Lee, A powering performance extrapolation method for a preswirl stator propeller system, in:  21st International Towing Tank Conference, Trondheim, Norway, 1996.
[6] Y.-J. Shin, M.-C. Kim, W.-J. Lee, K.-W. Lee, J.-H. Lee, Numerical and Experimental Investigation of Performance of the Asymmetric Pre-Swirl Stator for Container Ship, in:  Fourth International Symposium on Marine Propulsors smp’15, Austin, Texas, 2015, pp. 305-310.
[7] S. Park, G. Oh, S. Hyung Rhee, B.Y. Koo, H. Lee, Full scale wake prediction of an energy saving device by using computational fluid dynamics, Ocean Engineering, 101 (2015) 254-263.
[8] S. Saettone, P.B. Regener, P. Andersen, Pre-swirl stator and propeller design for varying operating conditions, in:  Proceedings of the 13th International Symposium on PRActical Design of Ships and Other Floating Structures, 2016.
[9] H. Streckwall, Y. Xing-Kaeding, On the working principle of pre-swirl stators and on other application benefit and design targets, International Shipbuilding Progress2, 63 (2017) 87-107.
[10] A. Nadery, H. Ghassemi, Hydrodynamic Performance of the Ship Propeller under Oscillating Flow with and Without Stator, American Journal of Civil Engineering and Architecture, 8 (2020) 56-61.
[11] A. Nadery, H. Ghassemi, An overview of plans to increase efficiency and improve propeller performance and reduce ship fuel consumption, in:  20th Marine Industries Conference, Tehran, Iran, 2018, (in persian).
[12] K. Koushan, V. Krasilnikov, M. Nataletti, L. Sileo, S. Spence, Experimental and numerical study of pre-swirl stators PSS, Journal of Marine Science and Engineering, 8 (2020).
[13] Y.m. Su, J.f. Lin, D.g. Zhao, C.y. Guo, H. Guo, Influence of a pre-swirl stator and rudder bulb system on the propulsion performance of a large-scale ship model, Ocean Engineering, 218 (2020) 108189.
[14] M. Renilson, Submarine Hydrodynamics, 2 ed., Springer Cham, 2018.
[15] G. Clarke, The choice of propulsor design for an underwater weapon, in:  UDT conference, London, 1988.
[16] M. Guner, E.J. Glover, Design method for propeller/propulsors on axisymmetric bodies, Marine, Offshore and Ice Technology, 5 (1994) 245-253.
[17] S.A. Huyer, Postswirl Maneuvering Propulsor, Journal of Fluids Engineering, 137 (2015).
[18] CD-Adapco., User guide STAR-CCM+ Version 13.0.6, in, 2017.
[19] J. Blazek, Computational Fluid Dynamics: Principles and Applications, Elsevier, 2001.
[20] T.N. Tu, Numerical simulation of propeller open water characteristics using RANSE method, Alexandria Engineering Journal, 58 (2019) 531-537.
[21] T. Prestero, Verification of a Six-Degree of Freedom Simulation Model, University of California, Davis, 1994.
[22] T. Gao, Y. Wang, Y. Pang, J. Cao, Hull shape optimization for autonomous underwater vehicles using CFD, Engineering Applications of Computational Fluid Mechanics, 10(1) (2016) 599-607.
[23] A. Nadery, H. Ghassemi, Numerical Investigation of the Hydrodynamic Performance of the Propeller behind the Ship with and without WED, Polish Maritime Research, 27 (2020) 50-59.
[24] A. Nadery, H. Ghassemi, H. Nowruzi, Enhancement of the ship propeller hydrodynamic performance by different energy-saving devices mounted at the upstream zone, Journal of the Brazilian Society of Mechanical Sciences and Engineering, 43 (2021) 469.
[25] W. Shi, B. Aktas, M. Atlar, D. Vasiljev, K. Seo, Stereoscopic PIV aided wake simulation of a catamaran research vessel using a dummy-hull model in a medium size cavitation tunnel, Journal of Marine Science and Technology (Japan), 23 (2018) 507-520.
[26] G. Tani, M. Viviani, D. Villa, M. Ferrando, A study on the influence of hull wake on model scale cavitation and noise tests for a fast twin screw vessel with inclined shaft, Proceedings of the Institution of Mechanical Engineers Part M: Journal of Engineering for the Maritime Environment, 232 (2018) 307-330.
[27] M.B. Wilson, SIMULATION OF SHIP WAKES IN WATER TUNNEL CAVITATION TESTING OF MODELS, in:  American Towing Tank Conference, 22nd, Newfoundland, Canada, 1989.
[28] ITTC, 9.1.0__Practical Guidelines for Ship CFD Applications, in:  ITTC – Recommended Procedures and Guidelines ITTC, 2011, pp. 1-8.
[29] I.B. Celik, U. Ghia, P.J. Roache, C.J. Freitas, H. Coleman, P.E. Raad, Procedure for Estimation and Reporting of Uncertainty Due to Discretization in CFD Applications, Journal of Fluids Engineering, 130(7) (2008) 078001-078004.
[30] M.M. Bernitsas, D. Ray, P. Kinley, KT, KQ and Efficiency curvers for Wag b-series, in:  University of Michigan, 1981, pp. 102.
Amirkabir Journal of Mechanical Engineering
Volume 55, Issue 1
April 2023
Pages 123-142

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