Parametric design for hydrodynamic optimization purposes: The case of "Symiaki skafi"


Published: Oct 30, 2024
Keywords:
Parametric analysis Traditional ship Decarbonization
Sarantos Sarantidis
https://orcid.org/0009-0005-5446-7073
Thomas P. Mazarakos
Abstract

The objective of this study is to provide a comprehensive analysis of the parametric design and hull optimization of a traditional Greek vessel known as the "Symiaki skafi". This vessel is distinguished by its unique characteristics, especially its hull geometry, which will be examined and analyzed in detail. The methodology of the manuscript is innovative. Initially, the relevant parameters affecting the design of the vessel's lines plan are delineated. Then, the positions of the control points for the parametric curves are determined. The subsequent development of the parametric surface of the model is founded on these parametric curves. The manuscript culminates in a comparative assessment of the basic hydrostatic values of the parametric model with those of the original vessel, prior to the hull optimization. This work is of dual significance in the context of decarbonization in shipping. On the one hand, it is a study of a traditional wooden vessel, which by definition has a low carbon footprint. On the other hand, it optimizes its hydrodynamic behavior so as to make it seaworthy and operationally efficient.

Article Details
  • Section
  • Naval Coastal and Maritime Design Engineering and Planning
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References
International Maritime Organization (IMO). 2023 IMO Strategy on Reduction of GHG Emissions from Ships: https://www.imo.org/en/OurWork/Environment/Pages/2023-IMO-Strategy-on-Reduction-of-GHG-Emissions-from-Ships.aspx. (2023).
Mallouppas, G., Yfantis, E.A.: Decarbonization in Shipping Industry: A Review of Research, Technology Development, and Innovation Proposals. J. Mar. Sci. Eng. 9, (415). https://doi.org/10.3390/jmse9040415 (2021).
Kim, H., Yang, C., Noblesse, F.: Hull form optimization for reduced resistance and improved seakeeping via practical designed-oriented CFD tools, (375-385) (2010).
Froude, W.: On the rolling of ships, Institution of Naval Architects (1861).
Murphy, R. D., Sabat, D. J., Taylor, R. J.: Least cost ship characteristics by computer techniques. Marine Technology 2(2), 174-202 (1963).
Mandel, P., Leopold, R.: Optimization Methods Applied to Ship Design, Trans. of SNAME 74 (1966).
Lyon, T.D.: A Calculator – Based Preliminary Ship Design Procedure. Marine Tech-nology 19(2), 140-158 (1982).
Papanikolaou, A., Nowacki, H., Zarafonitis, G., Kraus, A., Androulakis, M.: Concept design and optimization of a SWATH passenger/car ferry. In: Proceedings, IMAS 89, Marine Management (Holdings) Ltd., London (1989).
Holland, J.: Adaptation in natural and artificial systems, University of Michigan Press (1975).
Nowacki, H.: Five decades of Computer-Aided Ship Design, Computer-Aided Design 42(11), 956-969 (2010).
Söding, H.: Resistance decrease by computer-aided hull shape improvements. In: 2nd Conf. High-Performance Marine Vehicles, Hamburg, 431-445 (2011).
Gudenschwager,H.: Application and optimization in basic ship design, OPTIMISTIC – Optimization in Marine Design, Mensch & Buch Verlag, Berlin, 173-190 (2003).
Bertram, V.: Optimization in ship design, OPTIMISTIC – Optimization in Marine De-sign, Mensch & Buch Verlag, Berlin, .29-56 (2003).
Erikstad, S.: A decision support model for preliminary ship design, PhD thesis, Uni-versity of Trondheim (1996).
Maisonneuve, J.: Towards ship performance improvement using modeFRONTIER. In: 5th Num. Towing Tank Symp. (NuTTS), Pornichet (2002).
Valdenazzi, F., Harries, S., Janson, C. E., Leer-Andersen, M., Maisonneuve, J. J. Marzi, J., Raven, H.: The FANTASTIC RoRo: CFD Optimisation of the forebody and its experimental verification. In: Int. Conf. Ship and Shipping Research (NAV. 2003), Palermo (2003).
Dudson, E., Harries, S.: Hydrodynamic fine-tuning of a pentamaran for high-speed sea transportation services. In: Int. Conf. Fast Sea Transporta-tion (FAST), St. Petersburg (2005).
Hutchison, B.L., Hochkirch, K.: CFD hull form optimization of a 12,000 cu.yd. (9175 m3) dredge. In: 10th Int. Symp. Practical Design of Ships and Other Floating Struc-tures (PRADS), Houston (2007).
Harries, S., ValdenazzI, F., ABT, C., Viviani, U.: Investigation on optimization strate-gies for the hydrodynamic design of fast ferries. In: 6th Int. Conf. Fast Sea Transporta-tion (FAST), Southampton (2001).
Antoniou, A.: Research on the Naval Data of the Greek Type Vessels, PhD Thesis, National Technical University of Athens, Greece (1969).
Kostas, K.: 3d design & calculations with the aim of Rhino 3d, DaVinci Publication, Athens, Greece (2014).
McNeel, R.: Rhinoceros 3D, Version 8.0. Robert McNeel & Associates, Seattle, WA (2010)
Clark, J., Catmull, E.: Recursively generated b-spline surfaces on arbitrary topological meshes, Computer-Aided Design 10(6), 350-355 (1978).