Phylogenetic distribution, structural analysis and interaction of nucleotide excision repair proteins in cyanobacteria

Cyanobacteria are photosynthetic Gram-negative, oxygen evolving prokaryotes with cosmopolitan distribution. Ultraviolet radiation (UVR) and other abiotic stresses result in DNA lesions in cyanobacteria. Nucleotide excision repair (NER) pathway removes the DNA lesions produced by UVR to normal DNA se...

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Veröffentlicht in:DNA repair 2023-06, Vol.126, p.103487-103487, Article 103487
Hauptverfasser: Singh, Prashant R., Gupta, Amit, Rajneesh, Pathak, Jainendra, Sinha, Rajeshwar P.
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Gupta, Amit
Rajneesh
Pathak, Jainendra
Sinha, Rajeshwar P.
description Cyanobacteria are photosynthetic Gram-negative, oxygen evolving prokaryotes with cosmopolitan distribution. Ultraviolet radiation (UVR) and other abiotic stresses result in DNA lesions in cyanobacteria. Nucleotide excision repair (NER) pathway removes the DNA lesions produced by UVR to normal DNA sequence. In cyanobacteria, detailed knowledge about NER proteins is poorly studied. Therefore, we have studied the NER proteins in cyanobacteria. Analyses of 289 amino acids sequence from 77 cyanobacterial species have revealed the presence of a minimum of one copy of NER protein in their genome. Phylogenetic analysis of NER protein shows that UvrD has maximal rate of amino acid substitutions which resulted in increased branch length. The motif analysis shows that UvrABC proteins is more conserved than UvrD, Further, UvrA with UvrB protein interacts with each other and form stable complex which have DNA binding domain on the surface of the complex. UvrB also have DNA binding domain. Positive electrostatic potential was found in the DNA binding region, which is followed by negative and neutral electrostatic potential. Additionally, the surface accessibility values at the DNA strands of T5-T6 dimer binding site were maximal. Protein nucleotide interaction shows the strong binding of T5-T6 dimer with NER proteins of Synechocystis sp. PCC 6803. This process repairs the UV-induced DNA lesions in dark when photoreactivation is inactive. Regulation of NER proteins protect cyanobacterial genome and maintain the fitness of organism under different abiotic stresses. •Nucleotide excision repair proteins were found in 77 fully sequenced cyanobacteria.•Order Gloeobacteriales have UvrC protein homolog in their genome.•Phylogenetic study reveals that UvrD has maximum rate of amino acid substitutions.•UvrD motifs show more diversity in comparison to other NER proteins.•UVR proteins of Synechocystis sp. PCC 6803 shows strong binding with T5-T6 decamer.
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Ultraviolet radiation (UVR) and other abiotic stresses result in DNA lesions in cyanobacteria. Nucleotide excision repair (NER) pathway removes the DNA lesions produced by UVR to normal DNA sequence. In cyanobacteria, detailed knowledge about NER proteins is poorly studied. Therefore, we have studied the NER proteins in cyanobacteria. Analyses of 289 amino acids sequence from 77 cyanobacterial species have revealed the presence of a minimum of one copy of NER protein in their genome. Phylogenetic analysis of NER protein shows that UvrD has maximal rate of amino acid substitutions which resulted in increased branch length. The motif analysis shows that UvrABC proteins is more conserved than UvrD, Further, UvrA with UvrB protein interacts with each other and form stable complex which have DNA binding domain on the surface of the complex. UvrB also have DNA binding domain. Positive electrostatic potential was found in the DNA binding region, which is followed by negative and neutral electrostatic potential. Additionally, the surface accessibility values at the DNA strands of T5-T6 dimer binding site were maximal. Protein nucleotide interaction shows the strong binding of T5-T6 dimer with NER proteins of Synechocystis sp. PCC 6803. This process repairs the UV-induced DNA lesions in dark when photoreactivation is inactive. Regulation of NER proteins protect cyanobacterial genome and maintain the fitness of organism under different abiotic stresses. •Nucleotide excision repair proteins were found in 77 fully sequenced cyanobacteria.•Order Gloeobacteriales have UvrC protein homolog in their genome.•Phylogenetic study reveals that UvrD has maximum rate of amino acid substitutions.•UvrD motifs show more diversity in comparison to other NER proteins.•UVR proteins of Synechocystis sp. 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Positive electrostatic potential was found in the DNA binding region, which is followed by negative and neutral electrostatic potential. Additionally, the surface accessibility values at the DNA strands of T5-T6 dimer binding site were maximal. Protein nucleotide interaction shows the strong binding of T5-T6 dimer with NER proteins of Synechocystis sp. PCC 6803. This process repairs the UV-induced DNA lesions in dark when photoreactivation is inactive. Regulation of NER proteins protect cyanobacterial genome and maintain the fitness of organism under different abiotic stresses. •Nucleotide excision repair proteins were found in 77 fully sequenced cyanobacteria.•Order Gloeobacteriales have UvrC protein homolog in their genome.•Phylogenetic study reveals that UvrD has maximum rate of amino acid substitutions.•UvrD motifs show more diversity in comparison to other NER proteins.•UVR proteins of Synechocystis sp. 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subjects Adenosine Triphosphatases - metabolism
Cyanobacteria
Cyanobacteria - genetics
DNA - metabolism
DNA Damage
DNA Helicases - metabolism
DNA Repair
Escherichia coli Proteins - metabolism
Nucleotide excision repair (NER)
Phylogeny
T5-T6 decamer
Ultraviolet Rays
UvrAB complex
UvrB
title Phylogenetic distribution, structural analysis and interaction of nucleotide excision repair proteins in cyanobacteria
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