Utilization of Pumice Waste for Clayey Subgrade of Pavements
Publication: Journal of Materials in Civil Engineering
Volume 23, Issue 12
Abstract
The present study examined the potential of pumice waste of the Isparta-Gelincik region, which has been categorized under the lightweight aggregate class as a stabilizing additive to problematic clayey subgrade of pavements. The physical properties of lightweight aggregate material were analyzed. In earlier research, few experiments have been carried out by using experimental samples to test for properties such as stability when frozen, solidity, strength, Atterberg limits, California bearing ratio (CBR), and dynamic repeated load triaxial (RLT) tests. The utilization of Gelincik pumice waste as a stabilizer was determined for the clayey subgrade. Pumice waste of the Isparta-Gelincik region and high plasticity clay were mixed in varying proportions to improve the engineering properties of the clayey soil. The CBR experiment was also performed to observe the change of strength through the use of waste material. In addition, RLT testing was performed by using mixed materials to observe the changes in the resilient moduli values of the mixtures. The results of the experimental research showed that Gelincik pumice waste can be used as a stabilizer for problematic clayey subgrades when constructing roads. This research is the first example of a stabilization approach for problematic clayey subgrade of pavements by using pumice waste.
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References
American City and County. (1997). Solid waste—City uses glass cullets for road construction aggregate, American City and County Magazine, Apr. 18.
Bolen, W. P. (2003). “Pumice and pumicite.” U.S. Geological Survey Minerals Yearbook, USGS, Reston, VA.
Budhu, M. (2000). Soil mechanics and foundations, Wiley, New York.
Collins, R. J. and Ciesielski, S. K. (1994). “Recycling and use of waste materials and by-products in highway construction.” Synthesis of Highway Practice 199, National Cooperative Research Program (NCHRP), Transportation Research Board, Washington, DC.
Collins, R. J., and Miller, R. H. (1976). “Availability of mining wastes and their potential for use as highway material—Volume I—Classification and technical and environmental analysis.” FHWA-RD-76-106, Federal Highway Administration, Washington, DC.
Davraz, M. (2005). “Industrial important of Isparta-Gelincik region pumice.” Turkish Pumice Symp., BIMSABIR, Ankara, Turkey, 23–32.
Deganello, G., Liotta, L. F., Longo, A., Martorana, A., Yanev, Y., and Zotov, N. (1998). “Structure of natural water-containing glasses from Lipari (Italy) and Eastern Rhodopes (Bulgaria): SAXS, WAXS, and IR studies.” Non-Cryst J. Solids, 232, 547–553.
Gündüz, L. (1998). Pumice technology, Suleyman Demirel Univ., Mining Engineering Dept., Isparta, Turkey.
Gündüz, L., Şapçi, N., and Baspinar, E. (2006). “The use of Turkish pumice reserves as natural construction aggregate in civil engineering sector.” Engineering Geology Bulletin, International Association Engineering Geology and the Environment Turkish National Committee, 22, 31–45.
Huang, Y. H. (1993). Pavement analysis and design, Prentice Hall, Englewood Cliffs, NJ, 07632.
Jensen, O. M., and Lura, P. (2003). “Techniques for internal water curing of concrete.” Proc., Conf. Advances in Cement and Concrete, D. Lange, K. L. Scrivener, and J. Marchand, eds., ECI, 67–78.
Kavlak, Y. (2008). “Use of Isparta-Gelincik pumice in stabilization of highway flexible pavement subgrade.” M.Sc. thesis, S. Demirel Univ., Isparta, Turkey.
Lima, H., Quaresma, L., and Antonio, P. (2000). “Applicability of industrial by-products in pavement layers-Some research studies in LNEC.” Unbound aggregate in road construction, A. R. Dawson, ed., A. A. Balkema, Netherlands, 101–108.
Meegoda, N. J., Mueller, R. T., Huang, D., DuBose, B. H., Chen, Y., and Chuang, K. (1993). “Petroleum contaminated soils in hot-mix asphalt concrete—An overview.” Use of waste materials in hot-mix asphalt, ASTM STP 1193, H. Fred Waller, ed., ASTM, West Conshohocken, PA.
Okagbue, C. O., and Onyeobi, T. U. S. (1999). “Potential of marble dust to stabilize red tropical soils for road construction.” Eng. Geol., 53(3-4), 371–380.
Rodriguez, A. R., Castillo, H., and Sowers, G. F. (1988). Soil mechanics in highway engineering, Trans Tech, Germany.
Saltan, M., and Fındık, F. S. (2008). “Stabilization of subbase layer materials with pumice waste in flexible pavement.” Build. Environ., 43(4), 415–421.
Shin, C. J., and Sonntag, V. (1994). “Using recovered glass as construction aggregate feedstock.” Transportation Research Record. 1437, Transportation Research Board, Washington, DC, 8–18.
Yilmaz, A., and Karasahin, M. (2010). “Mechanical properties of ferrochromium slag in granular layers of flexible pavements.” Mater. Struct., 43(3), 309–317.
Zhu, Z. (2008). “Utilization of a new soil stabilizer for silt subgrade.” Eng. Geol., 97(3-4), 192–198.
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© 2011 American Society of Civil Engineers.
History
Received: Jun 25, 2010
Accepted: May 19, 2011
Published online: May 21, 2011
Published in print: Dec 1, 2011
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