Garboczi, E.
, Rosa, I.
, Lepech, M.
, Loftus, D.
, Roedel, H.
and Allende, M.
(2019),
Prediction of Ultimate Compressive Strength for Biopolymer-bound Soil Composites (BSC) Using Sliding Wingtip Crack Analysis, Engineering Fracture Mechanics, [online], https://doi.org/10.1016/j.engfracmech.2019.106570
(Accessed December 26, 2024)
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Prediction of Ultimate Compressive Strength for Biopolymer-bound Soil Composites (BSC) Using Sliding Wingtip Crack Analysis
Published
Author(s)
, Isamar Rosa, Michael Lepech, David Loftus, Henning Roedel, Maria Allende
Abstract
This paper introduces a damage-based model for determining the compressive strength of Biopolymer- bound Soil Composites (BSC), a novel class of bio-based construction composites that are produced through the mixture and desiccation of biopolymers with inorganic aggregates. A damage-based sliding wingtip crack model is used, in conjunction with experimental results from mechanical testing and X-ray micro-computed tomography image analysis, to predict the response of BSC materials under uniaxial compression. The methodology explores a range of mixture designs with varying biopolymer solution content. This methodology extends existing mixture design methodologies for BSC materials based on maximum bulk density of the soil phase.Citation
Engineering Fracture Mechanics
Volume
218
Pub Type
Journals
Download Paper
Keywords
biomaterial, biopolymer, composite, soil, micro-computed tomography, image segmentation, wingtip crack
Citation
Issues
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Created July 24, 2019, Updated July 24, 2024