Publication | Open Access
Review on biopolymer-based soil treatment (BPST) technology in geotechnical engineering practices
366
Citations
164
References
2020
Year
Bpst TechnologyEngineeringGeotechnical Engineering PracticesBioplasticBio-based MaterialSoil ModificationBpst ApplicationGeotechnical EngineeringBioremediationGeoenvironmental EngineeringSoil EngineeringBpst MethodsBiopolymer-based Soil TreatmentSediment TransportGeotechnical PropertyEnvironmental EngineeringGround ImprovementCivil EngineeringEnvironmental RemediationConstruction
Biopolymer-based soil treatment (BPST) has been applied for dust control, soil strengthening, and erosion control, yet its site applicability, durability, and economic feasibility remain insufficiently validated. This review synthesizes current knowledge and outlines future prospects for BPST in geotechnical engineering. The authors examine laboratory and field studies of various biopolymers, assessing their impact on soil consistency, strength, hydraulic conductivity, soil‑water characteristics, erosion control, and evaluating economic feasibility and sustainability. The review concludes that biopolymers represent a promising, environmentally friendly ground‑improvement material for geotechnical and construction applications.
Various applications of biopolymer-based soil treatment (BPST) in geotechnical engineering have been implemented in recent years, including dust control, soil strengthening and erosion control. Despite BPST methods can ensure the effectiveness of engineering while meeting environmental protection requirements, BPST technology requires further validation in terms of site applicability, durability, and economic feasibility. This study aims to provide a state-of-the-art review and future prospective of BPST. Current biopolymer types, engineered and assessed in laboratory scales, are described along with site implementation attempts. The effect of biopolymers on soil behavior is reviewed with regard to geotechnical engineering application and practice, including soil consistency limits, strength parameters, hydraulic conductivity, soil-water characteristics, and erosion control. The economic feasibility and sustainability of BPST application in ground improvement and earth stabilization practices is discussed. This review postulates biopolymers to be a promising new, environmentally friendly ground improvement material for geotechnical and construction engineering practice.
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