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Optimization of Rheological Properties of Granular Sub-Base using Cement Stabilization


Affiliations
1 Bikaner Technical University, Bikaner 334 004, India
2 Public Works Department, Bikaner 334 001, India

Pavement performance is associated with the characteristics of soil sub-grade and underlying layers. The poor soil subgrade and sub-base can deteriorate the overlying upper pavement layers. The weak layers can be improved by stabilization to get the optimum performance of the pavement. The study is abort stabilized base and sub-base soils using ordinary Portland cement 43 (OPC 43). With the variation of cement from 1.5% to 7%, stabilized samples have been treated to have the highest moisture content and dry density possible. An optimization model has been developed for compressive strength using response surface methodology (RSM). The results have been obtained from the model satisfy the real-life field conditions. The outcomes suggest that the cement-stabilized gravels meet the compressive strength criteria specified by the Ministry of Rural Development (MoRD) specifications for rural roads in India.

Keywords

Cement stabilization, Compressive strength, Optimization, Response surface methodology
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  • Optimization of Rheological Properties of Granular Sub-Base using Cement Stabilization

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Authors

Pratibha Bagaria
Bikaner Technical University, Bikaner 334 004, India
Karanjeet Kaur
Bikaner Technical University, Bikaner 334 004, India
Vimal Kr Gahlot
Public Works Department, Bikaner 334 001, India

Abstract


Pavement performance is associated with the characteristics of soil sub-grade and underlying layers. The poor soil subgrade and sub-base can deteriorate the overlying upper pavement layers. The weak layers can be improved by stabilization to get the optimum performance of the pavement. The study is abort stabilized base and sub-base soils using ordinary Portland cement 43 (OPC 43). With the variation of cement from 1.5% to 7%, stabilized samples have been treated to have the highest moisture content and dry density possible. An optimization model has been developed for compressive strength using response surface methodology (RSM). The results have been obtained from the model satisfy the real-life field conditions. The outcomes suggest that the cement-stabilized gravels meet the compressive strength criteria specified by the Ministry of Rural Development (MoRD) specifications for rural roads in India.

Keywords


Cement stabilization, Compressive strength, Optimization, Response surface methodology