Effect of Calcium Organic Additives on the Self-Healing of Concrete Microcracks in the Presence of a New Isolate Bacillus sp. BY1

AbstractCalcium carbonate–based biominerals are considered self-healing materials in concrete. The morphology and mineralogy of biominerals depend highly on the self-healing efficiency of concrete cracks. This study examined the morphology and mineralogy of biominerals with a new isolate, Bacillus s...

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Veröffentlicht in:Journal of materials in civil engineering 2019-10, Vol.31 (10)
Hauptverfasser: Jeong, Boyoung, Jho, Eun Hea, Kim, Sang Hyun, Nam, Kyoungphile
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creator Jeong, Boyoung
Jho, Eun Hea
Kim, Sang Hyun
Nam, Kyoungphile
description AbstractCalcium carbonate–based biominerals are considered self-healing materials in concrete. The morphology and mineralogy of biominerals depend highly on the self-healing efficiency of concrete cracks. This study examined the morphology and mineralogy of biominerals with a new isolate, Bacillus sp. BY1, and various organic calcium compounds (i.e., calcium formate, calcium acetate, and calcium lactate). In addition, compressive strength and crack self-healing efficiency were investigated under various other conditions. Biominerals formed in the presence of calcium formate and calcium lactate were mostly calcite (ca. 95% by weight) and contained more rhombohedral faces, whereas calcium acetate induced spherulite-shaped biominerals with a smaller fraction of calcite (ca. 61.5% by weight). With the addition of bacteria and organic calcium compounds, the compressive strengths decreased and increased, respectively; however, the loss of strength by the bacteria was compensated when both bacteria and organic calcium compounds were added together. Self-healing of cracks did not occur by the addition of bacteria alone and was more prominent when calcium lactate was used as a biomineral precursor.
doi_str_mv 10.1061/(ASCE)MT.1943-5533.0002711
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With the addition of bacteria and organic calcium compounds, the compressive strengths decreased and increased, respectively; however, the loss of strength by the bacteria was compensated when both bacteria and organic calcium compounds were added together. 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source American Society of Civil Engineers:NESLI2:Journals:2014
subjects Additives
Bacteria
Building materials
Calcite
Calcium acetate
Calcium carbonate
Calcium compounds
Civil engineering
Compressive strength
Concrete
Cracks
Microcracks
Mineralogy
Morphology
Self healing materials
Technical Papers
Weight
title Effect of Calcium Organic Additives on the Self-Healing of Concrete Microcracks in the Presence of a New Isolate Bacillus sp. BY1
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