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Computer Simulation and Percolation Theory Applied to Concrete.

Published

Author(s)

Edward J. Garboczi, Dale P. Bentz

Abstract

Concrete is a multilength scale composite material. From the nanometer to the millimeter scale, it is a random composite, and a different random composite at each length scale. Percolation processes play a key role in the microstucture of concrete, and help to describe the overall dependence of transport properties like ionic diffusivity on the microstructure. Computer models have been developed to describe the microstructure and transport properties, as the randomness of the material precludes most (but not all) analytical formulations. The overall description of concrete, over six orders of magnitude of length scales, in terms of computer models, percolation theory, and composite ideas should be of interest to those studying other random materials ss well, like ceramics and rocks. This report is written to present the ideas for concrete in such a way so as to be accessible to the noncement researcher. It is hoped that these idess will prove to be useful in other materials.
Citation
Annual Reviews of Computational Physics. Volume VII, World Scientific Publishing Co

Keywords

concretes, computer simulation

Citation

Garboczi, E. and Bentz, D. (1999), Computer Simulation and Percolation Theory Applied to Concrete., Annual Reviews of Computational Physics. Volume VII, World Scientific Publishing Co, [online], https://tsapps.nist.gov/publication/get_pdf.cfm?pub_id=917012 (Accessed April 19, 2024)
Created December 31, 1998, Updated August 13, 2014