Abstract
The rapid deterioration of the environmental situation comes mainly from environmental pollution by industrial and municipal wastes in the form of industrial and landfilled industrial and municipal wastes. The only way out of this threatening situation is the urgent utilization of all these wastes as valuable raw materials alternative to traditional natural materials. This article describes in detail the result of the complete replacement of natural materials with four industrial wastes—from iron ore processing, cellulose and pulp production, concrete production and demolition, and lime production—without changing the technological process nor creating new residues. The samples’ axial resistance values reached up to 4.94 MPa after 3 curing days, 5.75 MPa after 7 days, and 11.47 MPa on the 720th day of outdoor curing. The XRD, SEM, EDS, and LAMMA methods demonstrated the sol–gel solutions’ chemical interaction process and their gradual densification to a stone-like state. The developed materials have high mechanical and environmental properties and can be used to produce construction materials, such as bases of road and airfield runways, levee cores, industrial and municipal dumps, building foundations, bricks, and blocks.
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Acknowledgements
The authors would like to thank the Laboratory of Minerals and Rocks (LAMIR), the Ceramics Laboratory at UFPR, and the Multi-User Material Characterization Center (CMCM) at UTFPR, Curitiba, Brazil, for their dedicated technical assistance.
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All co-authors meet criteria for authorship and ensure appropriate acknowledgements made in the manuscript: Vsévolod Mymrin—author of the idea, developer of the plan of the experiments, participant of all stages of research, and author of the first manuscript’s version. Cleber L. Pedroso—performer of all principal laboratory studies and XRD analyses. Daniela E. Pedroso—bibliographical revision and performer of SEM analyses. Paulo H.B. Rolim—performer of all laboratory experimental works and co-author of this manuscript. Rodrigo E. Catai—performer of all laboratory experimental works and co-author of this manuscript. Karina Q. Carvalho—bibliographical revision and performer and co-author of this manuscript.
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Mymrin, V., Pedroso, C.L., Pedroso, D.E. et al. Eco-friendly cementless concrete from hazardous iron ore tailing and waste of cellulose-pulp, concrete demolition, and lime production. Int J Adv Manuf Technol 122, 933–945 (2022). https://doi.org/10.1007/s00170-022-09811-y
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DOI: https://doi.org/10.1007/s00170-022-09811-y