International Journal of Agriculture and Earth Science (IJAES )

E- ISSN 2489-0081
P- ISSN 2695-1894
VOL. 11 NO. 4 2025
DOI: 10.56201/ijaes.vol.11.no4.2025.pg87.107


Stabilization of Expansive Subgrade Soil Derived from Ameki Formation in Ozuitem, Southeastern Nigeria, Using Calcium Carbide Residue

Irefin, M.O., Okeke, O.C and Amadi, C.C.


Abstract


This research investigated the possibility of using Calcium carbide residue (CCR) as an additive in the modification of the geotechnical properties of clay soil from Ameki formation in Ozuitem so as to increase their strength bearing capacity and reduce their swelling potentials. The clay soil samples were collected from Ozuitem LGA of Abia State. Chemical analysis of the CCR shows that it contains 65.71%, 27.93% and 4.01% of CaO, Ag2O and SiO2 respectively. Preliminary tests to determine the geotechnical properties of the natural soil including Particle size distribution, Atterberg limits, Maximum Dry Density and California Bearing Ratio were determined in the laboratory to classify the soil. The soil samples were later stabilized with various percentages of CCR (2, 4, 6, 8 and 10). The geotechnical tests earlier performed on the soils were repeated (after stabilization) to evaluate the effects of CCR on the geotechnical properties of the clay soils. Results of the study indicate that CCR stabilization of clay soils in Ozuitem has the general effect of reducing the swelling indicators, thereby reducing the swelling potential of the soil. The liquid limit ranges between 31.51% to 43.18% and plasticity index extends from 12.14% to 23.005%. Optimum stabilization was achieved with 8% CHA stabilization. Stabilization with CCR acts like lime stabilization by increasing the CBR but reducing the MDD of the soils. Therefore, calcium carbide residue can be effectively used to reduce swelling indicators and to improve CBR values in clay soil and should be encouraged in the construction industry.


keywords:

Expansive soils, geotechnical properties, liquid limit, plasticity index, calcium carbide residue and stabilization.


References:


AASHTO. (1986). Standard specification for transportation materials and methods of sampling
and testing, 14th edition. American Association of State Highway and Transportation
Officials: Washington, D.C.
Adegoke, O.S. (1969). Eocene stratigraphy of Southern Nigeria. Colloque sur l’ Eocene, 3,
Bueau de Recherché Geologiques et Minieres Memoir. 69, 23-48.
Akinmade, O. B. (2008). Stabilization of black cotton soil using locust bean waste ash.
Unpublished M.Sc thesis, Civil Engineering Department, Ahmadu Bello University,
Zaria.
Al-Humairi, S.N.S., Manimaran, Abdullah, M.I., & Daud, J. (2019) Paper presentation. IEEE
Conference on Sustainable Utilization and Development in Engineering and
Technologies, CSUDET.
Arua, I. (1980). Palaeocene Macrofossils from the Imo Shale in Anambra State, Nigeria.
Journal of Mining and Geology. 17, 81–84.
Arua, I. (1986). Paleoenvironments of Eocene deposits in the Afikpo Syncline, southern
Nigeria. Journal of African Earth Sciences. 5, 279–284.
Chiaghanam, O. I., Chiadikobi, K. C., Oguanya, C. E., Ikegwuonu, O. N. & Nwokeabia, C. N.
(2017). Palynological and Paleoenvironmental Study of Paleogene in Bende–Umuahia,
Niger Delta Basin, Nigeria. Journal of Environment and Earth Science. 7(97-107),
2225-0948.
Clough, G. W. & Duncan, J. M. (1991). Foundation engineering hand book, HY Fang, ed. 223-
Cokca, E. (2001). Use of class F ashes for the stabilization of an expansive soils. Jounal of
Geotechnical Engineering. 127(7) 568-573.
Crowley, S. (2007). Introduction to Clay Minerals – Chemistry, Origins, Uses and
Environmental Significance. Geological Journal. 29, 385-386.
Degirmenci, N., Okucu, A. & Turabi, A. (2007). Application of phosphogypsum in soil
stabilization. Building and Environment. 42(9), 3393-3398.
Ekwenye, O.C., Nichols, G.J., Okogbue, C.O., Dim, C.I.P. & Onyemesili, O.C. (2017). Facies
architecture and reservoir potential of a macrotidal estuarine system: Eocene Ameki
Group, south-eastern Nigeria. In: Onuoha K. M. (Ed.) Advances in Petroleum
Geoscience Research in Nigeria, 20: 369– 405.
Fayose, E.A. & Ola, P.S. (1990). Radiolarian occurrences in the Ameki type section, eastern
Nigeria. J. Mining and Geol. 26, 75 – 80.
Federal Ministry of Works and Housing. (1997). General specifications for roads and bridges.
2, 145-284.
Frankly, E.J. & Cordry, E.A. (1967). The niger delta oil province recent developments onshore
and offshore. Pro. 7th World Petreology Congress Mexico City 1B. 195-209
Gurugubelli, S., Prasad, D. S. V. & Eswararao, B. (2017). A laboratory study on the strength
improve of expansive soil treated with calcium carbide residue and fly ash.
International Journal of Innovative Research in Technology. 3(12), 120-125.
Koteswara, R. D. (2011). The efficacy of reinforced technique on the fly ash stabilized
expansive soil as a subgrade embankment for highways. International Journal of
Engineering Science and Technology. 3(2), 776.
Kumrawat, N. & Ahirwar, S.K. (2014). Performance analysis of black cotton soil treated with
calcium carbide residue and stone dust. International Journal of Engineering Research
and Science and Technology. 3(4), 202-209.
Mekonnen, E., Kebede, A., Tafesse, T. & Tafesse, M. (2020). Application of microbial
bioenzymes in soil stabilization. International Journal of Microbiology. 1-8.
Mohamed, A. A. M. S., Yuan, J., Al-Ajamee, M., Dong, Y., Ren, R., & Hakuzweyezu, T.
(2023). Case Study Construction Materials. 18, 01894.
Murat, R.C. (1972). Stratigraphy and paleogeography of the Cretaceous and Lower Tertiary in
southern Nigeria. In: Dessauvagie, T.F.J. and Whiteman, A.J. (Eds.), African Geology.
University of Ibadan Press, Nigeria, 251–266.
Neeraj, K. & Ahirwar, S. K. (2014). Performance analysis of black cotton soil treated with
calcium carbide residue and stone dust. International Journal of Engineering Research
and Science and Technology. 3(4), 202-209.
Nalbantoglu, Z. (2004). Effectiveness of class C fly ash as an expansive soil stabilizer.
Construction and Building Materials. 18(6), 377-381.
Nwajide, C. S. (2013). Geology of Nigeria’s Sedimentary Basins. CSS Bookshops Limited,
Lagos. 565.
Ogbuchukwu, P.O & Okeke, O.C. (2021). Effects of lime and cement stabilization on
geotechnical properties of expansive soils in Awka and Environs, Southeastern Nigeria.
Journal of Mining and Geology. 57(2), 427-439.
Ola, S. A. (1983). The geotechnical properties of black cotton soils of North Eastern Nigeria.
In: S.A
Ollier, C. (1984). Hydrology and weathering. Weathering. 116.
Oluremi, J.R., Adedokun, S.I. & Osuolale, O.M. (2012). Effect of Coconut Husk Ash on the
Geotechnical Properties of Poor Lateritic Soil. Pacific Journal of Science and
Technology. 13(2), 499-507.
Onyelowe, K. C. & Okafor, F. O. (2012). A comparative review of soil modification methods.
Asian Research Publishing Network, Journal of Earth Sciences. 1(2), 36-41.
Oyediran, I. A. & Fadamoro, O. F. (2015). Strength characteristics of genetically different rice
and coconut husk ash compacted shales. International Journal of Geo-Engineering. 6
(10), 1-14.
Patel, A. (2019). Geotechnical Investigations and Improvement of ground Conditions.
Woodhead Publishing in Civil and Structural Engineering. 2.
Reyment, R.A. (1965). Aspects of geology of Nigeria. University of Ibadan Press. 145.
Seco, A., Ramirez, F., Miqueleiz, L., Urmeneta, P., Garcia, B., Prieto, E. & Oroz, V. (2012).
Types of waste for the production of pozzolanic materials-a review. INTECH. 141-150.
Sleep, E.H. (1971). The thermal effects of the formation of Atlantic continental margins by
continental break up. Geophysical Journal Royal Astronomical Society. 24, 325 – 350.
Subramanyam, S.P., Kotikula, D.K., Bennehalli, B., Babbar, A., Alamri, S., Duhduh, A. A.,
Rajhi, A.A., Kumar, R. & Kotecha, K. (2024). ACS Omega. 9, 8019.
Suiyi, Z., Yanong, R., Yuxin, Z., Minglin, Z., Weilu, Y., Xinfeng, X., Yang, Y., Jiancong, L.,
Zhan, Q., Jialin, L. & Yu, C. (2024). Journal of Environmental Chemical Engineering.
12(2), 112024.
Usta, M.C., Yörük, C.R., Uibu, M., Traksmaa, R., Hain, T., Gregor, A. & Trikkel, A. (2023).
ACS Omega. 8(32), 29543–29557.
Wei, J., Wei, J., Huang, Q., Zainal Abidin, S.M.I.B.S. & Zou, Z. (2021). Buildings. 13, 1001.
Wild, S., Kinuthia, J. M., Jones, G. I. & Higgins, D. D. (1998). Effects of partial substitution
of lime with ground granulated blast furnace slag (GGBS) on the strength properties of
lime-stabilised sulphate-bearing clay soils. Engineering Geology. 51(1), 37-53.
Yong, R. N. & Ouhadi, V. R. (2007). Experimental study on instability of bases on natural and
lime/cement-stabilized clayey soils. Applied Clay Science. 35(3-4), 238-249.
Zamin, B., Nasir, H., Mehmood, K., Iqbal, Q., Farooq, A. & Tufail, M. (2021) Advances in
Civil Engineering. 8493091.


DOWNLOAD PDF

Back


Google Scholar logo
Crossref logo
ResearchGate logo
Open Access logo
Google logo