629.IMPACT OF REK BITOLA UPON PHYSICAL AND CHEMICAL PROPERTIES OF THE SOIL
ДОИ:
https://doi.org/10.55302/MESJ20381629043bКлучни зборови:
REK Bitola, air sediment, soil propertiesАпстракт
Contamination of soil by air sediment emitted from coal based thermal power plants is one of the basic ecological issue. The aim of this research is to define the impact of production of REK Bitola on the soils from defined microlocality in Pelagonia basin. Chemical, mineralogical and granulometric analyses were performed upon the soil samples. Also basic physical properties of the soil are determined. The chemical composition of the air sediment was also determined. According to the measured values and statistical data of REK Bitola, an average cumulative deposited quantity of air sediment is calculated, as well as the cumulative deposited quantity of trace elements in soil. The deposited air sediment has a negative impact on some of the basic physical and chemical properties of soil, but has no significant effect on the change in porosity and soil properties resulting from it.Референци
Пецаков, С.: Основи на експлоатација на енергетски блокови, ЈП „Електростопанство на Македонија“ – Скопје, РЕК „Битола“ – Битола 1996.
Пецаков, С.: Локална инструкција за експлоатација на постројки за хемиска припрема, ЈП „Електростопанство на Македонија“ – Скопје, РЕК „Битола“ – Битола, 1999.
Студија за утврдување на влијанието на животната и работната средина на професионално експонираните работници во РЕК Битола, ЈЗУ Институт за јавно здравје на Република Македонија, 2010.
Резултати од извршени мерења на емисиони полутанти од Термоелектраната Битола, Лабораторија за еколошки испитувања, Технолаб, Скопје, 2010, 11049/10.
Лазаревски, A.: Климата во Македонија, Култура, Скопје, 1993.
Pokale, W. K.: Effects of thermal power plant on environment, Scientific Rewievs & Chemical Communications, 2(3), 212–215 (2012).
Nenadović, S., Kljajević, Lj., Nenedović, M., Milanović, M., Marković, S., Pavlović, V.: Physico-chemical soil analysis of Rudovci region, Geonauka, 1, (2) 1–8 (2013).
Nenadović, S., Nenedović, M., Kljajević, Lj., Pavlović, V., Đorđević, A., Matović, B.: Structure and composition of soils, Processing and Application of Ceramics, 4 (4) 259–263 (2010).
Balykov, B. I.: Granulometric composition of soil and its connection with standard distributions, Power Technology and Engineering, 36 (5) 289–294 (2002).
Galvão, L. S., Formaggio, A. R., Couto, E. G., Roberts, D.A.: Relationship between mineralogical and chemical composition of tropical soils and topography from hyperspectral remote sensing data, Journal of Photogrammetry and Remote Sensing, 63 (2), 259–271 (2008).
Mata, J. F., Da Silva, R. R., Fontes, M. P. F., Erasmo, E.A. L., Farias, V. L. D. S.: Mineralogical, granulometrical, and chemical analysis in soils of ecotones of the southwest of Tocantins, Brasilian Journal of Applied Technology for Agricultural Science, 4 (2), 152–175 (2012).
Shrivastava, V. S.: X-ray diffraction and mineralogical study of soil: A review, Journal of Applied Chemical Research, 9 (1) 41–51 (2000).
Sonawane, D. S., Shrivastava, V. S.: X-ray diffraction and mineralogical study of Coastal soils and sediments, Asian Journal of Chemistry, 17 (1), 499–505 (2005).
Reka, A. A., Pavlovski, B., Ademi, E., Jashari, A., Boev, B., Boev, I., Makreski, P.: Effect of thermal treatment of trepel at temperature range 800–1200 ˚C, Open Chemistry, 17 (1), 1235–1243 (2019).
Reka, A., Durmishi, B., Jashari, A., Pavlovski, B., Buxhaku, Nj., Durmishi, A.: Physical-chemical and mineralogical-petrographic examinations of trepel from Republic of Macedonia, IJISSET, 2 (1) 13–17 (2016).
Reka, A.: Influence of mineralogical composition and microstructure of the binding material on the physico-mechanical properties of ceramic products obtained by hydrothermal process, PhD thesis, Faculty of Technology and Metallurgy, “Ss Cyril and Methodius” University in Skopje, 2004 (in Macedonian).
Cekova, B., Pavlovski, B., Spasev, D., Reka, A.: Structural examinations of natural raw materials pumice and trepel from Republic of Macedonia, Proceedings of the XV Balkan Mineral Processing Congress, Sozopol, Bulgaria, 73–75, 2013.
Cvetković, Ž., Logar, M., Rosić, A., Ćirić, A.: Mineral composition of the airborne particles in the coal dust and fly ash of the Kolubara basin (Serbia), Journal of Mineralogy, Crystallography, Geochemistry, Ore Deposits, Petrology, Volcanology, 81 (2), 205–223 (2012).
Ayanda, O. S., Fatoki, O. S., Adekola, F. A, Ximba, B. J.: Characterization of fly ash generated from Matla power station in Mpumalanga, South Afica, E-Journal of Chemistry, 9 (4), 1788–1795 (2012).
Ismail, K. N., Hussin, K., Idris, M. S.: Physical, chemical & mineralogical properties of fly ash, Journal of Nuclear and Related Technology, 4, 47–51 (2007).
Sadasivan, S., Negi, B. S.: Chemical characterization of fly ash from coal-fired thermal power plants in India, Science of the Total Environment, 103 (2–3), 151–158 (1991).
Извештај од испитување на физичко-хемиски карактеристики на јаглен РЕК „Битола“, Термоелектрана, Рударски институт, Белград, 2011, бр. 64/12.
Pavlovski, B., Jančev, S., Petreski, Lj., Reka, A.: Bogoevski S., Boškovski, B.: Trepel – A peculiar sedimentary rock of biogenetic origin from the Suvodol village, Bitola, R. Macedonia, Geologica Macedonica, 25, (1), 67–72 (2011).
Pančevski, Z., Stafilov, T., Bačeva, K.: Distibution of heavy metals in some vegetable grown in the vicinity of lead and zinc smelter plant, Contributions, Macedonian Academy of Sciense and Art, 35 (1), 25–36 (2014).
Boškovski, B., Bogoevski, S., Stafilov, T., Ruseska, G., Kočuvoski, M.: Migration of arsenic and other microelements in anthropogenic contaminated soils, Mechanical Engeneering – Scientific Journal, 34 (1), 65–69 (2016).
Belviso, C., Cavalcante, F., Di Gennaro, S., Palma, A., Ragone, P., Fiore, S.: Mobility of trace elements in fly ash and in zeolites
