DETERMINATION OF MECHANICAL BEHAVIOR OF CONCRETE FC'30 THROUGH EXPERIMENTAL AND NUMERICAL METHODS (FEM)
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Laurens Arredondo, L. A., Vilches Tapia, J., Figueroa Meriño, J., & Romero Díaz, W. (2019). DETERMINATION OF MECHANICAL BEHAVIOR OF CONCRETE FC’30 THROUGH EXPERIMENTAL AND NUMERICAL METHODS (FEM). Universidad Ciencia Y Tecnología, 23(92), 10. Retrieved from https://uctunexpo.autanabooks.com/index.php/uct/article/view/127

Abstract

In recent years, the construction industry worldwide has increased, boosted by the economic development of the countries, where concrete is undoubtedly, the most used material, so it becomes relevant, to study the characteristics and the behavior of this material in different conditions. Within the mechanical properties, toughness stands out, which can be understood as the capacity of a material to absorb energy before fracturing. At present, there are different specialized tests to determine this value of toughness. These tests can be both destructive and non-destructive, as well as direct and indirect. The present research work develops an alternative methodology to the classical procedures for the estimation of the toughness, through the use of computational tools that use the finite element method to predict, in a virtual way, the behavior of a specimen of concrete fc'30. The results were validated with experimental data. In conclusion, it was found that the proposed methodology yields values for fracture toughness that coincide with the literature reported.

Referencias

[1]M. Kotsovos.  “Finite-Element modelling of structural concrete: Short-Term static and dinamic loading conditions”. CRC Press. National Technical University of Athens. 2015

[2]C. Aire, C. Molins. and A. Aguado. “Ensayo de doble punzonamiento para concreto reforzado con fi­bra: efecto del tamaño y origen de la probeta”. Concreto y cemento. Investigación y desarrollo. Vol. 5. No.1. pp. 17-31. 2013

[3] B. Jaramillo. and L. Bacca. “Una propuesta para la determinación de la tenacidad a la fractura me­diante MEF”. Suplemento de la revista latinoamericana de metalurgia y materiales. S1 (4). pp. 1641-1646. Ca­racas. 2009

[4] J. Arana and J. González, J. “Mecánica de fractu­ra”. Servicio editorial de la Universidad del país vasco. Bilbao.

[5]S. Oller. “Fractura mecánica. Un enfoque global”. Centro internacional de métodos numéricos en ingeniería. Barcelona (España). 2011

[6] American Society for Testing and Materials. “C39/C39M – 14: Standard test method for compressi­ve strength of cylind”. 2014

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