Isotropic Modeling of a Composite Panel of the Stern of a Fiberglass Boat Propelled by an Outboard Motor

Authors

  • Patrick Townsend Valencia Navalocean

DOI:

https://doi.org/10.25043/19098642.90

Keywords:

Sandwich, module, finite, composite resin

Abstract

We performed a theoretical and experimental study to define the best way to model the finite element sandwich structure aft of a fiberglass boat less than 15 meters in length, using an isotropic linear mathematical model that fits anisotropic material conditions. This is done by defining the properties of the ship’s fiberglass resin structure, which is representative of the influence of the forces acting during the glide on the geometry of the entire vessel. Formulation of the Finite Elements Method is presented, which works on the mathematical model to define the limitations of the results obtained. Isotropic material adjustment is calculated using Halpin-Tsai laws, developing its mathematical formulation for restrictions of modulus data entered as the finite element program experimentally calculated for each of the sandwich materials. The best-fit mathematical presentation to the modulus of the composite tool justifies the calculation thereof.

 

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Author Biography

Patrick Townsend Valencia, Navalocean

President of Naval Oceanic Consultancy S.A. Guayaquil, Ecuador

References

A. MIRAVETE, “Materiales Compuestos I”. Editorial Reverté, Barcelona España, 2007.

A. HORTA, “Macromoléculas”. Librería UNED, Tercera Edición. 2002.

ALEJANDRO BESEDNJAK, “Materiales Compuestos: procesos de fabricación de embarcaciones”. Books. Google.com. 1995.

ASTM, “Standard Test Method for Tensile properties of polymer Matrix Composite Materials”. American Society for Testing and Material. USA, 2002.

B. MAC DONALD, “Practical Stress Analysis with Finite Elements”. Page 215. Dublin, Ireland. 2007.

C. MARISCAL, “Formulación y Evaluación de Proyectos”. Escuela Superior Politécnica del Litoral, ESPOL, 109 páginas. Guayaquil, Ecuador. 2001.

C. KASSAPOGLOU, “Desing and Analysis of Composite Structures”. First Edition, The Atrium & Southern Gate. London, UK. 2010.

D. CHUNG, “University Notes: Science and Applications: Composite Material”. Second Edition, British Library Cataloguing in Publication Data. State University of New York, Buffalo, USA. 2010.

D. FELDMAN, A. BARBALAT, “Synthetic polymers: technology, properties, applications”. London, United Kingdom.1996.

E. CAR, S. OLLER, E. OÑATE, “Tratamiento numérico de los materiales compuestos”. Centro Internacional de Métodos Numérico de Ingeniería. Madrid, España. 2000.

F. BILLMAYER, “Science of Polymers”. New York, USA 1975.

F. SINGER, A. PYTEL, “Resistencia de Materiales”. Impreso en México Tercera edición, 560 páginas. D.F. México. 1982.

G. GILI, “Arquitectura Naval: Teoría del buque y sus aplicaciones”. 574 páginas. España 1956.

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Published

2014-01-26

How to Cite

Townsend Valencia, P. (2014). Isotropic Modeling of a Composite Panel of the Stern of a Fiberglass Boat Propelled by an Outboard Motor. Ciencia Y tecnología De Buques, 7(14), 9–14. https://doi.org/10.25043/19098642.90

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Section

Scientific and Technological Research Articles
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