The usability of industrial wastes on soil stabilization
Author(s) -
İsmail Zorluer,
Süleyman Gücek
Publication year - 2020
Publication title -
revista de la construcción
Language(s) - English
Resource type - Journals
eISSN - 0718-915X
pISSN - 0717-7925
DOI - 10.7764/rdlc.19.1.80-89
Subject(s) - compressive strength , curing (chemistry) , fly ash , materials science , california bearing ratio , industrial waste , environmental science , waste material , cement , mixed waste , soil water , pozzolan , waste management , geotechnical engineering , composite material , geology , engineering , portland cement , soil science , hazardous waste
Soils are made stronger and more durable by mixing additive materials. In particular, the use of waste provides environmental and economic advantages for this case. Wastes form in large quantities, however, which creates storage problems. To objective of this study is to research the availability of industrial wastes for soil stabilization. An experimental study was conducted on granular soil specimens mixed with industrial wastes such as marble and granite dust, boron waste, and fly ash in different ratios. Each mixture used two waste materials together. Specifically, fly ash was used with three additional waste materials because of its pozzolanic characteristics. The tests performed included freezing-thawing, unconfined compression strength, and California bearing ratio. The results of the study show that the strength of a specimen is dependent on the additive ratio, curing period, and the number of freeze-thaw cycles. Generally, unconfined compressive strength and California bearing ratio increased with additive materials and curing times. After freezing and thawing, unconfined compressive strength (except granite dust) decreased, whereas weight loss increased due to increasing additives and increasing freeze-thaw cycles.
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