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Soybean recovery from stress imposed by multigenerational growth in contaminated Chernobyl environment
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SYSNO ASEP 0533362 Document Type J - Journal Article R&D Document Type Journal Article Subsidiary J Článek ve WOS Title Soybean recovery from stress imposed by multigenerational growth in contaminated Chernobyl environment Author(s) Pernis, M. (SK)
Škultéty, L'udovít (MBU-M) ORCID, RID
Shevchenko, V. (UA)
Klubicová, K. (SK)
Rashydov, N. (UA)
Danchenko, M. (SK)Article number 153219 Source Title Journal of Plant Physiology. - : Elsevier - ISSN 0176-1617
Roč. 251, JUL 2020 (2020)Number of pages 11 s. Language eng - English Country DE - Germany Keywords dna methylation changes ; chlorophyll fluorescence ; arabidopsis plants ; chronic exposure ; cell-death ; Glycine max ; Discovery proteomics ; Chronic ionizing radiation OECD category Microbiology Method of publishing Limited access Institutional support MBU-M - RVO:61388971 UT WOS 000550450400002 EID SCOPUS 85086603240 DOI 10.1016/j.jplph.2020.153219 Annotation Ionizing radiation is a genotoxic anthropogenic stressor. It can cause heritable changes in the plant genome, which can be either adaptive or detrimental. There is still considerable uncertainty about the effects of chronic low-intensity doses since earlier studies reported somewhat contradictory conclusions. Our project focused on the recovery from the multiyear chronic ionizing radiation stress. Soybean (Glycine max) was grown in field plots located at the Chernobyl exclusion zone and transferred to the clean ground in the subsequent generation. We profiled proteome of mature seeds by two-dimensional gel electrophoresis. Overall, 15 differentially abundant protein spots were identified in the field comparison and 11 in the recovery generation, primarily belonging to storage proteins, disease/defense, and metabolism categories. Data suggested that during multigenerational growth in a contaminated environment, detrimental heritable changes were accumulated. Chlorophyll fluorescence parameters were measured on the late vegetative state, pointing to partial recovery of photosynthesis from stress imposed by contaminating radionuclides. A plausible explanation for the observed phenomena is insufficient provisioning of seeds by lower quality resources, causing a persistent effect in the offspring generation. Additionally, we hypothesized that immunity against phytopathogens was compromised in the contaminated field, but perhaps even primed in the clean ground, yet this idea requires direct functional validation in future experiments. Despite showing clear signs of physiological recovery, one season was not enough to normalize biochemical processes. Overall, our data contribute to the more informed agricultural radioprotection. Workplace Institute of Microbiology Contact Eliška Spurná, eliska.spurna@biomed.cas.cz, Tel.: 241 062 231 Year of Publishing 2021 Electronic address https://www.sciencedirect.com/science/article/abs/pii/S0176161720301097
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