The effect of metal-containing biocomposites of fungal origin on potato plants in vitro

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Abstract

The effect of metal (II)-containing composites based on extracellular metabolites of basidiomycetes Pleurotus ostreatus, Ganoderma lucidum, Grifola umbellata and Laetiporus sulphureus on the viability and response of potato plants in vitro has been investigated. The Lukyanovsky variety of potato, which is susceptible to ring rot, caused by the bacterium Clavibacter sepedonicus, was studied. The parameters investigated included biofilm formation by Clavibacter sepedonicus, various morphometric parameters of plants and the phytotoxicity of substances of fungal origin. The greatest anti-biofilm-forming effect was observed in metal-containing biocomposites based on G. lucidum; Fe- and Co-containing biopreparations inhibited the formation of Clavibacter sepedonicus biofilms by 40–50%. The plant height was adversely affected by composites, in the absence of metal (II), derived from L. sulphureus and P. ostreatus, as well as by a Co-containing composite derived from P. ostreatus. The decrease in plant growth, in comparison with the control, can be associated with the pronounced antibiotic properties of these basidiomycetes and cobalt. The remaining biocomposites studied did not have an adverse effect on the growth of potatoes in vitro. A number of morphometric parameters (length of internodes, number of leaves) remained virtually unchanged when exposed to biocomposites of fungal origin. In contrast to the vegetative part of plants, the biomass and length of the roots increased by 10–20% under the influence of biocomposites. Copper-containing composites derived from G. lucidum had no phytotoxic effect on plants and enhanced potato resistance to Clavibacter sepedonicus. The beneficial properties of biocomosites may be judged by the degree of stimulation of the physiological processes underlying the formation of the underground part of the plants, which is a prerequisite for increasing yields. The biocomposites are environmentally friendly because of their natural origin and being effective at very low doses. The results obtained using metal-containing biocomposites derived from G. lucidum and Gr. umbellata demonstrate the safety and possible improvement in health of potato plants by using biocomposites derived from cultures of higher fungi.

About the authors

O. M. Tsivileva

Institute of Biochemistry and Physiology of Plants and Microorganisms, Russian Academy of Sciences

Email: tsivileva@ibppm.ru

A. I. Perfileva

Siberian Institute of Plant Physiology and Biochemistry, Russian Academy of Sciences, Siberian Branch

Email: alla.light@mail.ru

A. G. Pavlova

Irkutsk State University

Email: pavlovaantonina2013@yandex.ru

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