Feasibility Study of Wing Sail Technology for Commercial Ship
Keywords:
Wing-sail, Fowler flap, Fuel saving, CO2 emission, Ship stabilityAbstract
In the 21st century, the growth in the price of fossil fuels and climate change prompted the shipping industry to consider alternative methods to minimize the use of fossil fuels. Wind-assisted propulsion system, in this regard, is quickly becoming one of the most popular and efficient methods of reducing both fuel usage and carbon dioxide emissions from ships. This study aims to perform numerous analyses on a model of an oil tanker that is outfitted with several solid vertical sails on its deck. ANSYS Fluent platform is used to run the simulations and the thrust produced by the solid sails at various apparent wind angles is determined. The fuel consumption is then calculated for a particular voyage of that tanker before and after installation of sail to find out the percentage of reduction in fuel consumption. It is proven that using the wing-sail with or without a fowler flap can save fuel and reduce carbon dioxide emissions by 1.64 to 2.08 percent, respectively. In addition, the ship's intact stability has been investigated using MAXSURF software and validated against the fulfillment of the weather criteria. The selected ship was found to have good stability after the installation of wing sail.
References
Li, Q., Nihei, Y., Nakashima, T., Ikeda, Y. (2015): A Study on the Performance of Cascade Hard Sails and Sail-Equipped Vessels. Ocean Engineering, Vol. 98, 23-31.
Dongqin, L., Yili, Z., Peng, L., Jingjing, D., Guohuan, L. (2019): Aerodynamic Performance of A New Double-Flap Wingsail. Polish Maritime, Vol.26,61-68.
Argatov, I., Rautakorpi, P., Silvennoinen, R. (2011). Apparent Wind Load Effects on the Tether of a Kite Power Generator. J. Wind Eng. Ind. Aerodyn., 99(10):1079-1088.
Ishihara, M.; Watanabe, T.; Shimizu, K.; Yoshimi, K.; Namura, H. Prospect of sailequipped motor ship as assessed from experimental ship Daioh. In Proceedings of the Shipboard Energy Conservation Symposium; Society of Naval Architects and Marine Engineers: New York, NY, USA, 1980; pp. 181–198.
Available online: http://www.sohu.com/a/275284498_100091571 (accessed on 14 November 2018).
Ouchi, K. Uzawa, K. (2011): Huge Hard Wing Sail for the Propulsor of Next Generation Sailing Vessel. The University of Tokyo, Japan.
Department of the Air Force, Air Training Command. (1970). Aerodynamics for pilots. ATC Manual 51-3. Randolph Air Force Base, TX.
Hurt, H., H. Jr. (1965): Aerodynamics for naval aviators (rev. ed.). The Office of the Chief of Naval Operations, Aviation Training Division. NAVAIR OD-80T-80. Los Angeles,CA: University of Southern California.
Van, O.P. (1997): Development of Proposed ISO 122217 Single Stability Index for Mono- Hull Sailing craft, The Chesapeake Sailing Yatch Symposium.
Aaron, B., Thomas, L., Simon, M. et al, (2010): Concept Design of a Fast Sail Assisted Feeder Container Ship. Main Report of Group Design Project, University of Southampton, School of engineering sciences, 58-59.
Yuxiang, L. (2013): Design and research of flap wing sail for wind-assisted vessel. A thesis submitted to Dalian Maritime University, 29-36.
Dominic, T. J., Hannan, M.A. (2020): Environmental Assessment of Various Wind-Assisted Ship Propulsion Devices on a Tanker for Sustainable Development. Newcastle University and Singapore Institute of Technology, 1-10.
Clearly, C., Daildola, J.C., Reiyghling, C.J. (1996): Sailing ship intact stability criteria. Marine Technology, vol. 33, no. 3, pp.218-232
Hu, Y., Tang, J., Xue, S., Liu, S. (2015): Stability criterion and its calculation for sail-assisted ship. Int. J. Nav. Archit. Ocean Eng., vol.7, pp.1-9.
Downloads
Published
How to Cite
Issue
Section
License
Copyright of articles that appear in Jurnal Mekanikal belongs exclusively to Penerbit Universiti Teknologi Malaysia (Penerbit UTM Press). This copyright covers the rights to reproduce the article, including reprints, electronic reproductions or any other reproductions of similar nature.