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Monitoring of Ground Forest Fire Impact on Heavy Metals Content in Edafic Horizons

Treść / Zawartość
Identyfikatory
Warianty tytułu
Języki publikacji
EN
Abstrakty
EN
Fires in natural ecosystems cause catastrophic consequences on a global scale. These fires are caused by landscape-transforming factors, which include dust and gas pollution of the atmosphere, destruction of forests and living organisms, pollution of ecosystems with dangerous toxic compounds and heavy metals. The aim of the presented research is to investigate the influence of ground forest fires on the concentration of mobile forms of heavy metals in different soil horizons. Sampling of soils of pyrogenic origin was carried out from 4 plots according to operating standards on the territory of Rava-Rusky forestry near the village of Lavrykiv, Zhovkva district, Lviv region (Ukraine). Soil sampling for investigation of migration of heavy metals was carried out taking into account the number of years spent after burning of meadow vegetation and forest litter. The most contaminated with heavy metals is site #2 (completely burned out 2 years before the experiment). There is a significant accumulation of cadmium in edaphic horizons (0.31 – 0.66 mg/kg), the value is close to the maximum allowable concentrations for soils (0.7 mg/kg). Also in this area the highest content of mobile forms of nickel (1.52 – 2.80 mg/kg) was detected, while the maximum allowable concentrations for soils is 4 mg/kg. The lowest content of heavy metals is in the site #1, which was exposed to fire long before the start of monitoring – 3.5 years. Here the values of mobile forms of heavy metals are close to the background. Vegetation in burnt areas at the first year of post-pyrogenic development is characterized by spontaneous single species. In 2–3 years it is characterized by a group arrangement. Complete natural overgrowth of the burnt area (natural vegetative reclamation) occurs 4–5 years after combustion. Monitoring the impact of ground forest fires on the concentration of heavy metals in edaphic horizons is important in terms of environmental renaturalization and the development of preventive measures for forest fires and fires in natural ecosystems.
Rocznik
Strony
96--103
Opis fizyczny
Bibliogr. 24 poz., rys., tab.
Twórcy
  • Institute of Civil Protection, Lviv State University of Life Safety, Kleparivska Str. 35, Lviv, 79007, Ukraine
  • Institute of Civil Protection, Lviv State University of Life Safety, Kleparivska Str. 35, Lviv, 79007, Ukraine
Bibliografia
  • 1. Official website of State Committee of Forestry of Ukraine. Electronic resource. http://dklg.kmu.gov.ua/forest/control/uk/publish/article?art_id=118927&cat_id=118926 [in Ukrainian]
  • 2. Breulmann G., Markert B., Weckert V., Herpin U., Yoneda R., Ogino K. 2002. Heavy metals in emergent trees and pioneers from tropical forest with special reference to forest fires and local pollution sources in Sarawak, Malaysia. The Science of the Total Environment. 285. 107–115.
  • 3. Kim E.-J., Oh J.-E., Chang Y.-S. 2003. Effects of forest fire on the level and distribution of PCDDyFs and PAHs in soil. The Science of the Total Environment. 311. 177–189.
  • 4. Drach K.L., Kuzyk A.D., Tovarianskyi V.I., Yemelianenko S.O. 2020. Fire dangerous properties of the most common plants of grass ecosystems in Ukraine. Ecologia Balkanica. 12, 1. 147–154.
  • 5. Gutowski J.M., Sucko K., Borowski J., Kubisz D., Mazur M.A., Melke A., Mokrzycki T., Plewa R., Żmihorski M. 2020. Post-fire beetle succession in a biodiversity hotspot: Bialowieza Primeval Forest. Forest Ecology and Management. 461, 117893. https://doi.org/10.1016/j.foreco.2020.117893
  • 6. Silva V., Pereira J.L., Campos I., Keizer J.J., Gonçalves F., Abrantes N. 2015. Toxicity assessment of aqueous extracts of ash from forest fires. Catena. 135. 401–408. http://dx.doi.org/10.1016/j.catena.2014.06.021
  • 7. Popovych, V., Renkas, A. 2019. Features of Landscape Fires Occurrence (Based on the Example of Lviv Region of Ukraine). Ecologia Balkanica. 11, 2. 99–111.
  • 8. Rules of fire safety in the forests of Ukraine, approved by the Order of the State Committee of Forestry of Ukraine dated 27.12.2004 №278. [in Ukrainian]
  • 9. Drohomyretska I.Z., Mazepa I.V., Mazepa М.А. 2009. Immunotoxicity of nickel and its compounds. Modern problems of toxicology. 3–4. 25–31. [in Ukrainian]
  • 10. Patrick J. Haley, George M. Shopp, Janet M. Benson, Yung-Sung Cheng, David E. Bice, Michael I. Luster, June K. Dunnick, Charles H. Hobbs. 1990. The Immunotoxicity of Three Nickel Compounds following 13-Week Inhalation Exposure in the Mouse. Toxicological Sciences. 15, 3. 476–487. https://doi.org/10.1093/toxsci/15.3.476
  • 11. Vasilyev А., Chashchin A. 2011. Heavy metals in the soils of Chusovoe: assessment and diagnosis of pollution. Perm: FGBOU VPO Perm GSHA. [in Russian]
  • 12. Pedan L.R. 2013. Prevention of environmental factors effect on health due to the trace element manganese. Hygiene of populated areas: Coll. Science. Wash. 62. 325–345. [in Ukrainian]
  • 13. Bezdil R.V., Pushkareva-Bezdil T.M., Shchetyna M.A. 2016. Content of heavy metals in rabbit farm waste and their environmentally safe disposal. Scientific Bulletin of NLTU of Ukraine. 26.1. 162–170. [in Ukrainian]
  • 14. State standard DSTU 4770.5. 2007. Soil quality. Determination of the content of mobile cobalt compounds in the soil in a buffer ammonium acetate extract with a pH of 4.8 by atomic absorption spectrophotometry. [in Ukrainian]
  • 15. Barbier O., Jacquillet G., Tauc M., Cougnon M., Poujeol P. 2005. Effect of heavy metals on, and handling by, the kidney. Nephron Physiol. 99 (4). 105–110. https://doi.org/10.1159/000083981
  • 16. Antonio G., Corredor L. 2004. Biochemical changes in the kidneys after perinatal intoxication with lead and or cadmium and their antagonistic effects when coadministered Ecotoxicol Environ Saf. 57(2), 184–189.
  • 17. Nam D.H., Lee D.P. 2006. Monitoring for Pb and Cd pollution using feral pigeons in rural, urban, and industrial environments of Korea. Sci. Total Environ. 15. 357 (1–3). 288–295.
  • 18. Phillips C.J., Chiy P.C., Omed H.M. 2004. The effects of cadmium in feed, and its amelioration with zinc, on element balances in sheep. J. Anim. Sci. 82 (8). 2489–2502.
  • 19. Paranyak R.P., Vasiltseva L.P., Makukh Kh.I. 2007. Ways of heavy metals entry into the environment and their impact on living organisms. Biology of animals. 9, 1–2. 83–89. [in Ukrainian]
  • 20. Myslyva T.M. 2013. Lead and cadmium in the soils of natural and agricultural landscapes of Zhytomyr Polissya. Bulletin of Zhytomyr National Agroecological University. 1 (1). 36–49. [in Ukrainian]
  • 21. Plaksienko I.L., Kulyk M.I., Halytska M.A., Dychenko A.S. 2020. Ecotoxicological aspect of soil contamination with lead and cadmium. Proceedings of the II International Scientific and Practical Conference “Environmental problems and environmental management in the context of sustainable development”. 37–39. [in Ukrainian]
  • 22. Moore J., Ramamurti W. 1987. Heavy metals in natural waters. Moscow. [in Russian]
  • 23. Moiseenko T. I. 2009. Aquatic ecotoxicology. Theoretical and applied aspects. Institute of Water Problems of the Russian Academy of Sciences. Moscow, Nauka. [in Russian]
  • 24. Jennifer C. Davey, Jack E. Bodwell, Julie A. Gosse, Joshua W. Hamilton. 2007. Arsenic as an Endocrine Disruptor: Effects of Arsenic on Estrogen Receptor–Mediated Gene Expression In Vivo and in Cell Culture. Toxicological Sciences. 98, 1. 75–86. https://doi.org/10.1093/toxsci/kfm013
Uwagi
Opracowanie rekordu ze środków MNiSW, umowa Nr 461252 w ramach programu "Społeczna odpowiedzialność nauki" - moduł: Popularyzacja nauki i promocja sportu (2021).
Typ dokumentu
Bibliografia
Identyfikator YADDA
bwmeta1.element.baztech-ba24ce1d-b27d-47f5-a0a9-6a2b6b722b44
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