ACCUMULATION OF HEAVY METALS IN GAMETOPHYTES OF THE EPILITHIC MOSSES

A. I. Polishchuk, H. L. Antonyak


DOI: http://dx.doi.org/10.30970/sbi.1302.601

Abstract


Heavy metals are hazardous pollutants in urban atmosphere that are released into the environment mainly as a result of industrial activity and high traffic loads. These substances pose a substantial risk to human health and biota in urban ecosystems. Therefore, environmental monitoring of air pollution with metals by using bioindicator species is of great importance. Bryophytes capable of accumulating heavy metals are widely used as bioindicators of environmental pollution for biomonitoring atmospheric metal deposition. The ability of urban epilithic mosses to accumulate heavy metals has not been studied sufficiently. This invistigation was aimed at studying metal-accumula­ting ability of Rhynchostegium murale and Schistidium apocarpum mosses collected within the city of Lviv (Western Ukraine), as well as exploring the relationship between the level of anthropogenic load and the accumulation of heavy metals in moss gametophytes. Two polluted sites in the southern part of the city and one control site in the territory of Stryisky Park were analyzed. The content of heavy metals, namely Cr, Mn, Ni, Pb, and Zn, in moss samples was determined by the atomic absorption spectrophotometry using an atomic absorption spectrometer C-115PK Selmi. The results were processed using statistical methods. It was demonstrated that different levels of metal accumulate in Rhynchostegium murale and Schistidium apocarpum mosses. Depen­ding on the concentration in moss gametophytes sampled in the city of Lviv, the studied metals can be arranged in the following order: Mn> Zn> Cr> Ni> Pb. However, the content of Mn and Zn in the S. apocarpum moss was found to be considerably higher than in R. murale. The gametophytes of both mosses collected in areas subjected to industrial and transport loads in the southern regions of Lviv city had significantly higher concentration of Pb, and R. murale also had an elevated Mn content compared to moss samples collected in green park area. The results of our study suggest that the rate of accumulation of heavy metals in gametophytes of epilithic mosses reflect the level of atmospheric metal deposition in urban areas exposed to the anthropogenic pressures on the environment.


Keywords


heavy metals, bryophytes, urban ecosystems, environmental monito­ring, bioindication

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References


1. Adamiec E., Jarosz-Krzemińska E., Wieszała R. Heavy metals from non-exhaust vehicle emissions in urban and motorway road dusts. Environmental Monitoring and Assessment, 2016; 188: 369.
CrossrefPubMedPMCGoogle Scholar

2. Antonyak H.L., Bagday T.V., Pershyn O.I., Bubys O.E., Panas N.E., Oleksyuk N.P. Metals in aquatic ecosystems and their influence on hydrobionts. Animal Biology, 2015; 17(2): 9-24. (In Ukrainian)
Google Scholar

3. Antonyak H.L., Mamchur Z.I., Pershyn O.I., Bubys O.E., Kordosh T.V. Bioavailability of Metals and their Accumulation in Plant Tissues. Bulletin of Problems of Biology and Medicine, 2015; 3; 2(123): 11-16. (In Ukrainian)
Google Scholar

4. Awofolu O.R. Impact of automobile exhaust on levels of lead in a commercial food from bus ter­minals. J. Appl. Sci. Environ. Manage., 2004; 8(1): 23-27.
CrossrefGoogle Scholar

5. Boiko M.F. A Checklist of Bryobionta of Ukraine. Kherson: Ailant, 2008. 229 p. (In Ukrainian)

6. Bourdrel T., Bind M.A., Béjot Y., Morel O., Argacha J.F. Cardiovascular effects of air pollution. Archives of Cardiovascular Diseases, 2017; 110(11): 634-642.
CrossrefPubMedPMCGoogle Scholar

7. Breuste J.H., Anwar M.M., Nawaz R., Rani M. Urban Ecosystems: Functions, Value and Management. In: Ecosystem Functions and Management (Sandhu H., ed.). Springer Int. Publ. AG, 2017: 123-154.
CrossrefGoogle Scholar

8. Chеrnychenko I.O., Lytvychenko O.M., Sovertkova L.S., Tsymbaliuk S.M. Cancer risk assessment for the population of the industrial cities of Ukraine. Environment & Health, 2017; 2: 17-22. (In Ukrainian)
CrossrefGoogle Scholar

9. Järup L. Hazards of heavy metal contamination. British Medical Bulletin, 2003; 68(1): 167-182.
CrossrefPubMedGoogle Scholar

10. Kabir E., Ray S., Kim K.H., Yoon H.O., Jeon E.C., Kim Y.S., Cho Y.S., Yun S.T., Brown R.J.C. Current status of trace metal pollution in soils affected by industrial activities. Scientific World Journal, 2012; 2012: 916705.
CrossrefPubMedPMCGoogle Scholar

11. Mamchur Z. Urbanophilic epiphytic mosses of Lviv city. Visnyk of Lviv University. Biology series, 2010; 54: 115-122. (In Ukrainian)
Google Scholar

12. Matolych B.M. Ecological Atlas of Lviv Region. Lviv, 2007: 67 p. (In Ukrainian)

13. Naeini F.Y., Azimzadeh H., Arani A.M., Sotoudeh A., Kiani B. Ecological risk assessment of heavy metals from cement factory dust. Environmental Health Engineering and Management Journal, 2019; 6(2): 129-137.
CrossrefGoogle Scholar

14. Ogunkunle C.O., Ziyath A.M., Rufai S.S., Fatoba P.O. Surrogate approach to determine heavy metal loads in a moss species - Barbula lambaranensis. Journal of King Saud University. Science, 2016; 28(2): 193-197.
CrossrefGoogle Scholar

15. Ozdemir H. Mitigation impact of roadside trees on fine particle pollution. Science of the Total Environment, 2019; 659: 1176-1185.
CrossrefPubMedGoogle Scholar

16. Plášek V. Bryophytes in the woods. Field guide for foresters and valuators. Warsaw: State Forests Information Center, 2013: 130 p.

17. Popoola L.T., Adebanjo S.A., Adeoye B.K. Assessment of atmospheric particulate matter and heavy metals: a critical review. Int. J. Environ. Sci. Technol., 2018; 15: 935.
CrossrefGoogle Scholar

18. Qarri F., Lazo P., Allajbeu S., Bekteshi L., Kane S., Stafilov T. The evaluation of air quality in Albania by moss biomonitoring and metals atmospheric deposition. Archives of Environmental Contamination and Toxicology, 2019; 76: 554-571.
CrossrefPubMedGoogle Scholar

19. Stanković J.D., Sabovljević A.D., Sabovljević M.S. Bryophytes and heavy metals: a review. Acta Botanica Croatica, 2018: 77(2): 109-118.
CrossrefGoogle Scholar

20. Stebel A. Contribution to the bryoflora of the Wiśnickie Foothills (Western Carpathians, Poland). Acta Musei Silesiae, Scientiae Naturales, 2015; 64: 131-139.
CrossrefGoogle Scholar

21. Tessier L., Boisvert J.L. Performance of terrestrial bryophytes as biomonitors of atmospheric pollution. A review. Toxicological and Environmental Chemistry, 1999; 68: 179-220.
CrossrefGoogle Scholar

22. Vanderpoorten A., Papp B., Gradstein R. Sampling of bryophytes. Chapter 13. In: Manual on Field Recording Techniques and Protocols for All Taxa Biodiversity Inventories (Eymann J., Degreef J., Hüuser Ch., Monje J.C., Samyn Y., Spiegel D.V., eds.). Belgian Development Cooperation; UK Joint Nature Conservation Committee, 2010: 331-345.
Google Scholar

23. Vellak K., Ingerpuu N., Leis M., Ehrlich L. Annotated checklist of Estonian bryophytes. Folia Cryptogamica Estonica, 2015; 52: 109-127.
CrossrefGoogle Scholar

24. Wan D., Yang G., Yang J., Zhan C. Ecological risks and spatial distributions of heavy metals in Beijing atmospheric dust. Pol. J. Environ. Stud., 2018; 27(2): 881-887.
CrossrefGoogle Scholar

25. Welham S.J., Gezan S.A., Clark S.J., Mead A. Statistical Methods in Biology. Design and Analysis of Experiments and Regression. Taylor & Francis Group, LLC, 2015: 568 p.
Google Scholar

26. Zhang L., Gao M., Cui J., Yang F., Wang H., Fu C., Huang Y. Wet deposition of trace metals at a typical urban site in Southwestern China: fluxes, sources and contributions to aquatic environments. Sustainability, 2018; 10: 69.
CrossrefGoogle Scholar


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