ISSN 2413-4996 (English ed. Online)
ISSN 2409-9066 (English ed. Print)
ISSN 2409-9066 (English ed. Print)
Spectrophotometric Express Method in Bioindication of Park Ecosystems
| Title | Spectrophotometric Express Method in Bioindication of Park Ecosystems |
| Publication Type | Journal Article |
| Year of Publication | 2020 |
| Authors | Nebesny, VB, Grodzynska, GA, Samchuk, AI, Dugin, SS, Honchar, HYu. |
| Short Title | Sci. innov. |
| DOI | 10.15407/scine16.04.074 |
| Volume | 16 |
| Issue | 4 |
| Section | Research and Engineering Innovative Projects of the National Academy of Sciences of Ukraine |
| Pagination | 74-82 |
| Language | English |
| Abstract | Introduction. Park areas perform conservational and recreational functions in an urban environment that is under the influence of intense manmade load.
Problem Statement. The global decline in air quality, the augmentation of toxic emissions and industrial wastes, require constant monitoring of the environment, which must be focused primarily on biotic parameters. Purpose. estimation of the manmade pollution of park ecosystems of kyiv according to the spectral characteristics of leaves of the bioindicator species Taraxacum officinale F.h. Wigg., and the content of heavy metals in them and in the soils. Materials and Methods. Spectrophotometry method for studying the spectral characteristics of T. officinale leaves; induction-coupled plasma mass spectrometry (iCP-Ms) method for measuring the content of Cu, Pb, Zn, Mn, Ni, Cr in leaves and soils from localities; statistical methods. Results. The average level of correlations (0.50-0.69) between vegetation indices R550/R485, R550/R620, R450/R735, NDVI, RESV, SI and Cu content is shown, Pb, Mn in leaves and Pb and Mn — in soils, and a high degree of correlation (0.75-0.87) between the indices R450/R735, NDVI, RESV, LCI and the content of zn and Cr in leaves and soils. There is a clear trend of increasing the content of heavy metals in the direction from the central parts of the park areas to the peripheral ones, which are intensively affected by traffic. The most polluted is the Mariinsky Park. high levels of heavy metals Cu, Pb and Cr were also found in the soils and leaves of the park of the kyiv Polytechnic institute. The lowest level of pollution is in the Feofaniya park. Conclusions. The discussed vegetation indices are recommended both for rapid assessment of the state of natural and urban ecosystems, and for interpretation of satellite images for zoning and to determine the degree of man-made pollution. The use of the spectrophotometric method for bioindication is promising due to a high speed of obtaining results, a wide coverage, and a low cost. |
| Keywords | bioindication, heavy metals, park ecosystems, spectral reflection, Taraxacum officinale F.H. Wigg. |
| References | 1. Dmitriev, O. P. (Ed.). (2016). Bioindication of technogenic contamination in the city of Kyiv: methodological approaches. Kyiv [in Urainian].
2. Dіdukh, Ya. P. (2012). Basics of bіoіndication. Kyiv [in Ukrainian].
3. Iqbal, M. Z., Shafig, М., Qamar Zaidi, S., Athar, M. (2015). Effect of automobile pollution on chlorophyll content of roadsideurban trees. Global J. Environ. Sci. Manage, 1 (4), 283–296.
4. Burda, R. I., Golivets, M. A., Petrovich, O. Z. (2014). Alien species in the flora of the nature reserve fund of the plain part of Ukraine. Russian journal. biol. invasion, 4, 1–29 [in Russian].
5. Samchuk, A. I., Kuraieva, I. V., Grodzynska, H. A., Vovk, K. V., Voitiuk, Yu. Iu., Zlobina, K. S., Stadnyk, V. O., Ohar, T. V., Nebesnyi, V. B., Honchar, H. Yu. (2019). Heavy metals in the environment of the Kyiv metropolis. Kyiv [in Ukrainian].
6. Kondratev, K. Ya., Fedchenko, P.P. (1982). Spectral Reflectance and Vegetation Recognition. Leningrad [in Russian].
7. Nebesnyy, V. B., Dubyna, D. V., Prokopenko, V. F., Shelyag-Sosonko Yu. R. (1993). Distribution of heavy metals accumulated inPhragmites australis in delta zones of the northern Black Sea coast. Hydrobiological Journal, 29, 9–21.
8. Levanchuk, A. V., Kopyitenkova, O. I., Nehoroshev, A. S., Gayko, I. I. (2005). The method of controlling the quality of the environment in a metropolis. Successes of modern science, 9, 59–61 [in Russian].
9. Andreeva, A. V., Buznikov, A. A., Skryabin, S. V., Timofeev, A. A., Alekseeva-Popova, N. V., Belyaeva, A. I. (2007). Investigation of the nature of changes in the optical characteristics of vegetation under the influence of heavy metals to develop a method for remote diagnosis of pollution. Modern Problems of Remote Sensing of the Earth from Space, 4 (2), 175–182 [in Russian].
10. Khavaninzadeh, A. R., Veroustraete, F., Buytaert, J. A. N., Dirckx, J., Samson, R. (2013). Assessing urban habitat quality using spectral characteristics of Tilia leaves. Environ. Pollut, 178, 7-14.
11. Khavaninzadeh, A. R., Veroustraete, F., Buytaert, J. A. N., Samson, R. (2014). Leaf injury symptoms of Tilia sp. as an indicator of urban habitat quality. Ecological indicators, 41, 58-64.
12. Surin, V. G. (2011). Active optical testers for information support of precision farming, precision livestock breeding and environmental safety. Agrophysics, 2, 39-49 [in Russian].
13. Nebesnyi, V. B., Grodzynska, A. A. (2015). Estimation of technogenic pollution of Kyiv by spectral reflective characteristics of leaves Tilia cordata (Tiliaceae). Ukr. Botan. J., 72 (2), 116-121 [in Ukrainian].
14. Nebesnyi, V. B., Grodzynska, A. A., Honchar, H. Yu. (2016). Use of spectrophotometric method to assess the ecological condition of urban areas of Kyiv. Bulletin of the NAS of Ukraine, 8, 59-67 [in Ukrainian].
15. Nebesnyi, V. B., Grodzinskaya, А. A., Gonchar, A. Yu., Konyakin, S.M., Schur, K.Yu. (2016). The use of Tilia cordata Mill. as bioindicator for the evaluation of the ecological state of Kyiv urbanized areas (Ukraine). Journal of Medicinal Plants Studies, 4 (3), 277-282.
16. Nikolskiy, V. I. (1990). Dandelion as a possible object of phenological monitoring of natural ecosystems. Problems of biological systems stability: thesis of reports of the All-Union School. Kharkov [in Russian].
17. Stvolinskaya, N. S. (2000). Viability of Taraxacum officinale Wigg. in populations of the city of Moscow in connection with motor pollution. Ecology, 2, 147-150 [in Russian].
19. Nebesnyi, V., Grodzinskaya, A., Dugin, S. (2018, July). Using Remote Sensing Methods in Bioindication of Urban Ecosystems. Abstract eBook. The 4rd International Symposium on EuroAsian Biodiversity (03-06 July, Kyiv). Kyiv.
20. Nebesnyi, V. B., Grodzinskaya, A. A., Samchuk, A. I. (2019, June). Bioindication of pollution by heavy metals of parking ecosystems of Kiev. Biogeochemistry – the scientific basis for sustainable development and protection of human health: proceedings of the XI International biogeochemical school (13–15 June, Tula). Tula [in Russian].
21. Timofeev, A. A. (2009). Research and development of a method and a hardware-software complex for remote assessment of pollution of indicator species of vegetation by heavy metals. Ph (Teh.). Sankt-Peterburg [in Russian].
22. Cherepanov, A. S., Druzhinina, E. G. (2009). Spectral properties of vegetation and vegetation indices. Geomatika, 3, 28–32 [in Russian].
23. Roberts, D., Roth, K., Perroy, R. (2011). Hyperspectral vegetation indices. In: Hyperspectral Remote Sensing of Vegetation (Eds. Thenkabail, P.S., Huete, A.) CRC Press, Boca Raton, FL, US.
24. Iakymchuk, V. H., Lishchenko, L. P., Sukhanov, K. Yu., Porushkevych, A. Yu. (2015). Application of spectral indices of tree leaf spectrograms to assess the ecological conditions of their growth in Kyiv. Ukrainian Journal of Remote Sensing of the Earth, 5, 4–14 [in Ukrainian].
25. List of available Indices. https://www.index.database.de ((Last accessed: 27.12.2019).
26. Ponomarenko, O. M., Samchuk, A. I., Krasiuk, O. P., Makarenko, T. I., Antonenko, O. H. (2008). Analytical schemes of sample preparation of rocks and minerals and determination of microelements in them by the method of mass spectrometry with induction-coupled plasma (ISP-MS). Mineralogical journal, 4, 97–103 [in Ukrainian].
27. Grodzinskaya, A. A., Nebesnyi, V. B., Samchuk, A. I., Honchar, H. Yu. (2019). Radiocesium (137Cs) and Mineral Elements in Culinary-Medicinal Mushrooms from the Southern Outskirts of Kyiv, Ukraine. International Journal of Medicinal Mushrooms, 21 (1), P. 71–77.
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