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What are the potential applications of biomineralization for bio-cementation in engineering and construction? 


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Biomineralization for bio-cementation in engineering and construction offers various promising applications. It can be utilized for soil stabilization and wind erosion control, as well as for self-healing of concrete structures, enhancing mechanical properties and durability. Additionally, biomineralization can be employed to close cracks in concrete using biomineralizing bacteria encapsulated in sodium alginate capsules. Furthermore, the process of microbial-induced calcium carbonate precipitation (MICP) can be harnessed to improve the engineering properties of granular soils through the precipitation of calcium carbonate minerals, aiding in soil improvement. Overall, biomineralization presents a sustainable and environmentally friendly approach to enhance construction materials and processes, showcasing its potential for diverse applications in the field of engineering and construction.

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Biomineralization can be applied for self-healing in concrete structures, enhancing mechanical properties, durability, and crack repair potential, making it beneficial for bio-cementation in engineering and construction.
Biomineralization for bio-cementation can be applied in soil stabilization and wind erosion control in engineering and construction, enhancing soil strength and resistance to erosion.
Biomineralization with encapsulated bacteria can enhance concrete strength by closing cracks, offering potential for bio-cementation in construction to improve durability and mechanical properties.
Biomineralization in bio-cementation offers sustainable infrastructure solutions by utilizing microbial-induced calcium carbonate precipitation for bio-bricks production, reducing environmental impacts in engineering and construction.

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