Factor Analysis of the Physical–Mechanical Properties for Geopolymers Based on Brick Dust and Biomass Bottom Ash as Eco-Friendly Building Materials
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Abstract
The production of building materials is unavoidable if the well-being and development of
society are to be maintained. However, in manufacturing these materials, significant greenhouse gas
emissions and environmental effects are produced. For this reason, and with the aim of reducing the
impact of the manufacture of these materials, this work developed a geopolymeric material made up
solely of wastes, brick dust and biomass bottom ashes which replaced the traditional ceramic materials.
To evaluate the quality of this sustainable geopolymeric material, different groups of specimens were
formed with different percentages of both residues, subsequently determining the physical properties
of the new-formed geopolymers and guaranteeing they accomplish the prescriptions of the ceramic
regulations for construction. In addition, the results of the geopolymer characterisation tests were
statistically analysed using factor analysis, with the sole purpose of establishing connections and
interdependence between the variables that influence the geopolymerisation process. Thus, it was
possible to demonstrate that the combination of brick dust and biomass bottom ashes produced
geopolymers with adequate qualities to replace traditional ceramics, as well as that the different
combinations of both residues produced feasible materials to be used as ceramics with various
characteristics, with two main factors determined by factorial analysis that governed the physical
properties of the geopolymer obtained: the percentage of brick dust and the theoretical porosity.
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Bibliographic citation
Terrones-Saeta, J. M., Luís, A. T., Romero, E., Fortes Garrido, J. C., Diaz-Curiel, J., & Grande, J. A. (2023). Factor Analysis of the Physical–Mechanical Properties for Geopolymers Based on Brick Dust and Biomass Bottom Ash as Eco-Friendly Building Materials. In Processes (Vol. 11, Issue 8, p. 2491). MDPI AG. https://doi.org/10.3390/pr11082491














