Bioplateau for the purification of water bodies from heavy metals

TitleBioplateau for the purification of water bodies from heavy metals
Publication TypeJournal Article
Year of Publication2019
AuthorsLapan, OV, Mikhyeyev, OM
Abbreviated Key TitleDopov. Nac. akad. nauk Ukr.
Date Published09/2019

A mobile bioplateau design for the purification of water bodies from heavy metals has been developed, where higher land plants are used as the biotic component. To construct a bio plateau, chemically inert floating materials are used as the substrate granular foam, on whose top the seeds of higher terrestrial plants are placed. The constructed bioplateaux on the 9th day of incubation were placed into tanks with a solution of heavy metals to study the cleaning efficiency of timothy in the aquatic environment. For the study of the influence of chro mium (VI) on growth parameters of timothy, the bioplateaux were placed in desiccators with tap water, which additionally introduced potassium bichromate. The measurements of the length of the stems and roots were carried out at the 8th and 13th days of incubation of the bioplateau in the solution. The efficiency of the proposed hydrophytic structure with timothy plants meadow with respect to chromium (VI), cadmium ions (II) and zinc (II) is shown. A study of the effect of chromium (VI) on the growth parameters of timothy grass plants is conducted.

Keywordsbioplateau, heavy metals, phytoremediation, terrestrial plants

1. National report on the state of the environment in Ukraine in 2006. Kyiv: The Ministry of ecology and natural resources, 2007 (in Ukrainian).
2. Davydova, S. L. (2002). Heavy metals as supertoxicants of the XXI century: studies. allowance. Moscow: Izdvo Ross. un-ta druzhby narodov (in Russian).
3. Trahtenberh, I. M., Kolesnikov, A. K. & Lukovenko, V. P. (2004). Heavy metals in the environment. Modern hygienic and toxicological aspects. Minsk: Nauka i tehnika (in Russian).
4. Glazunova, I. V., Romashchenko, A. K. & Tishina, K. A. (2018). Bioengineering structures and storages of lo cal flowing of watersheds for a more effectient usage of water resources of river basins. Prirodoobust roy s tvo, No. 2, pp. 46-54 (in Russian).
5. Timofeeva, S. S., Ul’rih, D. V. & Timofeev, S. S. (2016). Fitofilters for wastewater treatment. Vestnik tehno logicheskoho universiteta, 19, No.16, pp. 162-165 (in Russian).
6. Madzhd, S. M., Panchenko, A. O. & Bondar, A. M. (2017). The role of higher aquatic plants in the degradation of pollutants in bioengineering hydrofit structures. Naukoemni technologii, No. 1, pp. 89-93 (in Ukrainian). doi:
7. Mikheev, A.N., Madzhd, S.M, Semenova, E.I. & Dmitrukha, T.I. (2015). Adaptation of hydrophite system for purification of wastewaters of civil aviation enterprises. Khimiya i Tekhnologiya Vody, 37, No. 6, pp. 574-581 (in Russian). doi:
8. Khavezov, I. & Tsalev, D. (1983). Atomno-absorbtsionnyy analiz. Leningrad: Khimiya (in Russian).
9. Mikheev, A. N., Lapan, O. V. & Madzhd, S. M. (2017). Experimental foundations of a new method for rhizofiltration treatment of aqueous ecosystems from 137Cs. Khimiya i Tekhnologiya Vody, 39, No. 4, pp. 439-446 (in Russian). doi: