Soil Nutrient Variations Between Soil Depths (0-20cm & 20-40cm) Around Cement Factories, Ethiopia
Modern Chemistry
Volume 7, Issue 4, December 2019, Pages: 103-108
Received: Aug. 16, 2019; Accepted: Oct. 25, 2019; Published: Oct. 30, 2019
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Yohannse Habteyesus Yitagesu, Ethiopia Institute of Agricultural Research, Holetta Research Center, Holetta, Ethiopia
Kebede Dinkecha, Ethiopia Institute of Agricultural Research, Holetta Research Center, Holetta, Ethiopia
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This study was conducted with an aim to analyze the spatial variability of soil properties with depth under cement dust pollution areas. In soil there is nutrient variation in different depths, the variations can also affected by the anthropogenic factors. In this study, the nutrient variation between soil depths (0-20cm & 20-40cm) in cement dust pollution fields has been assessed. A total of 72 soil samples from 0-20cm & 20-40cm depths at different distance from the factories (0-500m, 500-1500m & ≈4000m) were collected and analyzed at Holeta agricultural chemistry laboratory. The parameters analyzed includes: major physico-chemical properties (Total Nitrogen, Organic carbon, Potassium, Phosphorus, pH, Moisture, soil texture, Bulk density, SO4-S and Cation Exchange Capacity). One-way ANOVA were used to compare the mean values between experimental fields (distance from the factory and soil depths) with SPSS statistical software. At p<0.05, there is no significance differences is occurs in the analyzed parameters between soil depths. However trends have shown that the PH, Organic carbon, Total Nitrogen, clay content, Phosphorus, Potassium and Sulfur level declines top to down (from 0-20cm to 20-40cm depths). The trends of Soil bulk density increased from top to bottom, this might be due to loading effect. Electric conductivity decline with soil depths near to the factory but increased top to bottom as far from the factories. From the data, the cement dust pollution can influence in nutrient variations and therefore need to monitor to regulate the pollution of emanate dust.
Soil Depths, Physico-chemical Properties, Cement Dust
To cite this article
Yohannse Habteyesus Yitagesu, Kebede Dinkecha, Soil Nutrient Variations Between Soil Depths (0-20cm & 20-40cm) Around Cement Factories, Ethiopia, Modern Chemistry. Vol. 7, No. 4, 2019, pp. 103-108. doi: 10.11648/
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Gadd, J. M. (2008). Transformation and mobilization of metals, metalloids, and radionuclides by microorganisms. In: A. Violante, P. M. Huang, G. M. Gadd. (eds). Biophysico-Chemical Processes of Metals and Metalloids in Soil Environments. Wiley-Jupac Series, Vol 1 John Wiley & Sons, Hoboken, NY pp: 53-96.
MacCarthy, D. S. (2013). Spatial variability of some soil chemical and physical properties of an agricultural land scape, West African Journal of applied Ecology (AJOL), 21, 47–61, 2013.
Mulla, D. J. ( 2001). Soil spatial variability, pp. 343-374. In A. W. Warrick (ed.). Soil Physics Companion. CRC Press. USA.
Kalafatoglu, E., Örs, N., Özdemir, S. S. and Munlafalioglu, I. (2001). “Trace element emissions from some cement plants in Turkey”, Water, Air and Soil Pollution, 129: 91-100.
Princewill, C. Ogbonna; Adanma, N. N. (2011). Metal concentration in soil and plants in abandoned cement factory. Int Conference on Biotechnology and Environment Management IPCBEE, 18, Singapore.
Muhammad, Z. I; Muhammad, S. (2001). Periodical effect of cement dust pollution on the growth of some plant species. Turk J. Bot, 25, 19-24.
Emmanuel Olubunmi Fagbote and Edward Olorunsola Olanipekun. (2010). Evaluation of the status of heavy metal pollution of soil and plant (Chromolaena odorata) of Agbabu Bitumen deposit area, Nigeria. American-Eurasian Journal of Scientific Research, 5 (4), 241-248.
Ahiamadjie, H; Adukpo, O. K. (2010). Determination of the elemental contents in soils around diamond cement factory, Aflao. Research Journal of Environmental and Earth Sciences, 3 (1), 46-50.
Al-Oud, S. S; Nadeem, M. E. A; Al-Shbel, B. H. (2011). Distribution of heavy metals in soils and plants around a cement factory in Riyadh city, central of Saudi arabia. American-Eurasian J. Agric. & Environ. Sci, 11 (2), 183-191.
Addo, M. A; Darko, E. O. (2012). Evaluation of heavy metals contamination of soil and vegetation in the vicinity of a cement factory in the Volta region, Ghana. Int. J. Science and Technology, 2, 1.
Feleke B. (2014). Energy audits in Mugher cement enterprise, Adis Ababa, Ethiopia.
Reeuwijk, LP van (2002). Technical paper in procedures in soil analysis. 6th edition.
Virgina Cooperative Extension program. (2011). Soil testing laboratory procedures: 452-881.
George Estefan, R. S. and John Ryan (2013). Method of soil, plant and water analysis, 3rd edition.
Bonton. Jr. (2001). Laboratory guide for conducting soil tests and plant analysis.
Bouyoucos, G. H. (1951) reclamation of the hydrometer for making mechanical analysis of soil. Agro. Jour. 43: 434-438.
Black, C. A. (Ed) (1965). Determination of exchangeable Ca, Ma, K, Na, Mn and effective cations exchange capacity in soil. Methods of soil analysis agro. No. 9 part 2 Amer. Soc. Agronomy, Madison, Wisconsin.
Donald A. Horneck, Dan M. Sullivan, Jim S. Owen, and John M. Hart (2011). Soil Test Interpretation Guide.
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