Mikhail Puzakov

Dr. Mikhail Puzakov

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Research Focus & Metrics

Academic Career Length

21Years (2006-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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3 October 2018 in Journal of Molecular Evolution
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MPMikhail Puzakov
Mikhail Puzakov
LPL. V. Puzakova
L. V. Puzakova
SCS. V. Cheresiz
S. V. Cheresiz

7 October 2021 in Biology
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SSShi Shasha
Shi Shasha
MPMikhail Puzakov
Mikhail Puzakov
ZGZhongxia Guan
Zhongxia Guan
XKXiang Kuilin
Xiang Kuilin
MDMohamed Diaby
Mohamed Diaby
BGBo Gao
Bo Gao
Here, a new superfamily of IS630-Tc1-mariner (ITm) DNA transposons, termed Sailor, is identified, that is characterized by a DD82E catalytic domain and is distinct from all previously known superfamilies of the ITm group. Phylogenetic analyses revealed that Sailor forms a monophyletic clade with a more intimate link to the clades of Tc1/mariner and DD34E/Gambol. Sailor was detected in both prokaryotes and eukaryotes and invaded a total of 256 species across six kingdoms. Sailor is present in nine species of bacteria, two species of plantae, four species of protozoa, 23 species of Chromista, 12 species of Fungi and 206 species of animals. Moreover, Sailor is extensively distributed in invertebrates (a total of 206 species from six phyla) but is absent in vertebrates. Sailor transposons are 1.38–6.98 kb in total length and encoded transposases of ~676 aa flanked by TIRs with lengths between 18, 1362 and 4 bp (TATA) target-site duplications. Furthermore, our analysis provided strong evidence of Sailor transmissions from prokaryotes to eukaryotes and internal transmissions in both. These data update the classification of the ITm group and will contribute to the understanding of the evolution of ITm transposons and that of their hosts.

11 January 2007 in Molecular Reproduction and Development
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AVAnna A. Vasilkova
Anna A. Vasilkova
HKHelen A. Kizilova
Helen A. Kizilova
MPMikhail Puzakov
Mikhail Puzakov
ASAlexander G. Shilov
Alexander G. Shilov
AZAntonina I. Zhelezova
Antonina I. Zhelezova
OSOleg L. Serov
Oleg L. Serov

1 October 2021 in Molecular Phylogenetics and Evolution
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MPMikhail Puzakov
Mikhail Puzakov
LPLudmila V. Puzakova
Ludmila V. Puzakova
SCSergey Cheresiz
Sergey Cheresiz
YSYatong Sang
Yatong Sang

23 January 2020 in Molecular Genetics and Genomics
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MPMikhail Puzakov
Mikhail Puzakov
LPL. V. Puzakova
L. V. Puzakova
SCSergey Cheresiz
Sergey Cheresiz

3 June 2022 in Molecular Biology
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Journal Article
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MPMikhail Puzakov
Mikhail Puzakov
LPL. V. Puzakova
L. V. Puzakova
Transposable elements have a significant impact on the structure and functioning of multicellular genomes, and also serve as a source of new genes. Studying the diversity and evolution of transposable elements in different taxa is necessary for the fundamental understanding of their role in genomes. The Tc1/mariner elements are one of the most widespread and diverse groups of DNA transposons. In this work, the structure, distribution, diversity, and evolution of the L18 (DD37E) elements in the genomes of cnidarians (Cnidaria) were studied for the first time. As a result, it was found that the L18 group is an independent family (and not a subfamily of the TLE family, as previously thought) in the Tc1/mariner superfamily. Of the 51 detected elements, only four had potentially functional copies. It is assumed that the L18 transposons are of ancient origin, and, in addition, the elements found in the genomes of organisms of the Anthozoa and Hydrozoa classes do not come from a common ancestral transposon within the Cnidaria phylum. In organisms of the Hydrozoa class, L18 transposons appeared as a result of horizontal transfer at a later time period. An intraspecies comparison of the diversity of the L18 elements demonstrates high homogeneity with respect to “old” transposons, which have already lost their activity. At the same time, distant populations, as in the case of Hydra viridissima, have differences in the representation of DNA transposons and the number of copies. These data supplement the knowledge on the diversity and evolution of Tc1/mariner transposons and contribute to the study of the influence of mobile genetic elements on the evolution of multicellular organisms.