The conservation and diversity of the exons encoding the glycine and arginine rich domain of the fibrillarin gene in vertebrates, with special focus on reptiles and birds
•A nine-exon configuration of the fibrillarin gene is conserved in vertebrates.•Internal exons are of the same lengths except exon 2 and 3 encoding the GAR domain.•Reptiles have shorter exon 2 but longer exon 3 compared with other tetrapods.•Song birds have the shortest exon 2 and highly evolved exo...
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Published in | Gene Vol. 866; p. 147345 |
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Main Authors | , , , , , , |
Format | Journal Article |
Language | English |
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Abstract | •A nine-exon configuration of the fibrillarin gene is conserved in vertebrates.•Internal exons are of the same lengths except exon 2 and 3 encoding the GAR domain.•Reptiles have shorter exon 2 but longer exon 3 compared with other tetrapods.•Song birds have the shortest exon 2 and highly evolved exon 3.
The nucleolar rRNA 2′-O-methyltransferase fibrillarin (FBL) contains a highly conserved methyltransferase domain at the C-terminus and a diverse glycine arginine-rich (GAR) domain at the N-terminus in eukaryotes. We found that a nine-exon configuration of fbl and exon 2–3 encoded GAR domain are conserved and specific in vertebrates. All internal exons except exon 2 and 3 are of the same lengths in different vertebrate lineages. The lengths of exon 2 and 3 vary in different vertebrate species but the ones with longer exon 2 usually have shorter exon 3 complementarily, limiting lengths of the GAR domain within a certain range. In tetrapods except for reptiles, exon 2 appears to be longer than exon 3. We specifically analyzed different lineages of reptiles for their GAR sequences and exon lengths. The lengths of exon 2 in reptiles are around 80–130-nt shorter and the lengths of exon 3 in reptiles are around 50–90 nt longer than those in other tetrapods, all in the GAR-coding regions. An FSPR sequence is present at the beginning of the GAR domain encoded by exon 2 in all vertebrates, and a specific FXSP/G element (X can be K, R, Q, N, and H) exist in the middle of GAR with phenylalanine as the 3rd exon 3-encoded amino acid residue starting from jawfish. Snakes, turtles, and songbirds contain shorter exon 2 compared with lizards, indicating continuous deletions in exon 2 and insertions/duplications in exon 3 in these lineages. Specifically, we confirmed the presence the fbl gene in chicken and validated the RNA expression. Our analyses of the GAR-encoding exons of fbl in vertebrates and reptiles should provide the basis for further evolutionary analyses of more GAR domain encoding proteins. |
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AbstractList | The nucleolar rRNA 2′-O-methyltransferase fibrillarin (FBL) contains a highly conserved methyltransferase domain at the C-terminus and a diverse glycine arginine-rich (GAR) domain at the N-terminus in eukaryotes. We found that a nine-exon configuration of fbl and exon 2–3 encoded GAR domain are conserved and specific in vertebrates. All internal exons except exon 2 and 3 are of the same lengths in different vertebrate lineages. The lengths of exon 2 and 3 vary in different vertebrate species but the ones with longer exon 2 usually have shorter exon 3 complementarily, limiting lengths of the GAR domain within a certain range. In tetrapods except for reptiles, exon 2 appears to be longer than exon 3. We specifically analyzed different lineages of reptiles for their GAR sequences and exon lengths. The lengths of exon 2 in reptiles are around 80–130-nt shorter and the lengths of exon 3 in reptiles are around 50–90 nt longer than those in other tetrapods, all in the GAR-coding regions. An FSPR sequence is present at the beginning of the GAR domain encoded by exon 2 in all vertebrates, and a specific FXSP/G element (X can be K, R, Q, N, and H) exist in the middle of GAR with phenylalanine as the 3rd exon 3-encoded amino acid residue starting from jawfish. Snakes, turtles, and songbirds contain shorter exon 2 compared with lizards, indicating continuous deletions in exon 2 and insertions/duplications in exon 3 in these lineages. Specifically, we confirmed the presence the fbl gene in chicken and validated the RNA expression. Our analyses of the GAR-encoding exons of fbl in vertebrates and reptiles should provide the basis for further evolutionary analyses of more GAR domain encoding proteins. The nucleolar rRNA 2'-O-methyltransferase fibrillarin (FBL) contains a highly conserved methyltransferase domain at the C-terminus and a diverse glycine arginine-rich (GAR) domain at the N-terminus in eukaryotes. We found that a nine-exon configuration of fbl and exon 2-3 encoded GAR domain are conserved and specific in vertebrates. All internal exons except exon 2 and 3 are of the same lengths in different vertebrate lineages. The lengths of exon 2 and 3 vary in different vertebrate species but the ones with longer exon 2 usually have shorter exon 3 complementarily, limiting lengths of the GAR domain within a certain range. In tetrapods except for reptiles, exon 2 appears to be longer than exon 3. We specifically analyzed different lineages of reptiles for their GAR sequences and exon lengths. The lengths of exon 2 in reptiles are around 80-130-nt shorter and the lengths of exon 3 in reptiles are around 50-90 nt longer than those in other tetrapods, all in the GAR-coding regions. An FSPR sequence is present at the beginning of the GAR domain encoded by exon 2 in all vertebrates, and a specific FXSP/G element (X can be K, R, Q, N, and H) exist in the middle of GAR with phenylalanine as the 3rd exon 3-encoded amino acid residue starting from jawfish. Snakes, turtles, and songbirds contain shorter exon 2 compared with lizards, indicating continuous deletions in exon 2 and insertions/duplications in exon 3 in these lineages. Specifically, we confirmed the presence the fbl gene in chicken and validated the RNA expression. Our analyses of the GAR-encoding exons of fbl in vertebrates and reptiles should provide the basis for further evolutionary analyses of more GAR domain encoding proteins.The nucleolar rRNA 2'-O-methyltransferase fibrillarin (FBL) contains a highly conserved methyltransferase domain at the C-terminus and a diverse glycine arginine-rich (GAR) domain at the N-terminus in eukaryotes. We found that a nine-exon configuration of fbl and exon 2-3 encoded GAR domain are conserved and specific in vertebrates. All internal exons except exon 2 and 3 are of the same lengths in different vertebrate lineages. The lengths of exon 2 and 3 vary in different vertebrate species but the ones with longer exon 2 usually have shorter exon 3 complementarily, limiting lengths of the GAR domain within a certain range. In tetrapods except for reptiles, exon 2 appears to be longer than exon 3. We specifically analyzed different lineages of reptiles for their GAR sequences and exon lengths. The lengths of exon 2 in reptiles are around 80-130-nt shorter and the lengths of exon 3 in reptiles are around 50-90 nt longer than those in other tetrapods, all in the GAR-coding regions. An FSPR sequence is present at the beginning of the GAR domain encoded by exon 2 in all vertebrates, and a specific FXSP/G element (X can be K, R, Q, N, and H) exist in the middle of GAR with phenylalanine as the 3rd exon 3-encoded amino acid residue starting from jawfish. Snakes, turtles, and songbirds contain shorter exon 2 compared with lizards, indicating continuous deletions in exon 2 and insertions/duplications in exon 3 in these lineages. Specifically, we confirmed the presence the fbl gene in chicken and validated the RNA expression. Our analyses of the GAR-encoding exons of fbl in vertebrates and reptiles should provide the basis for further evolutionary analyses of more GAR domain encoding proteins. •A nine-exon configuration of the fibrillarin gene is conserved in vertebrates.•Internal exons are of the same lengths except exon 2 and 3 encoding the GAR domain.•Reptiles have shorter exon 2 but longer exon 3 compared with other tetrapods.•Song birds have the shortest exon 2 and highly evolved exon 3. The nucleolar rRNA 2′-O-methyltransferase fibrillarin (FBL) contains a highly conserved methyltransferase domain at the C-terminus and a diverse glycine arginine-rich (GAR) domain at the N-terminus in eukaryotes. We found that a nine-exon configuration of fbl and exon 2–3 encoded GAR domain are conserved and specific in vertebrates. All internal exons except exon 2 and 3 are of the same lengths in different vertebrate lineages. The lengths of exon 2 and 3 vary in different vertebrate species but the ones with longer exon 2 usually have shorter exon 3 complementarily, limiting lengths of the GAR domain within a certain range. In tetrapods except for reptiles, exon 2 appears to be longer than exon 3. We specifically analyzed different lineages of reptiles for their GAR sequences and exon lengths. The lengths of exon 2 in reptiles are around 80–130-nt shorter and the lengths of exon 3 in reptiles are around 50–90 nt longer than those in other tetrapods, all in the GAR-coding regions. An FSPR sequence is present at the beginning of the GAR domain encoded by exon 2 in all vertebrates, and a specific FXSP/G element (X can be K, R, Q, N, and H) exist in the middle of GAR with phenylalanine as the 3rd exon 3-encoded amino acid residue starting from jawfish. Snakes, turtles, and songbirds contain shorter exon 2 compared with lizards, indicating continuous deletions in exon 2 and insertions/duplications in exon 3 in these lineages. Specifically, we confirmed the presence the fbl gene in chicken and validated the RNA expression. Our analyses of the GAR-encoding exons of fbl in vertebrates and reptiles should provide the basis for further evolutionary analyses of more GAR domain encoding proteins. |
ArticleNumber | 147345 |
Author | Chang, Chien-Ping Wang, Yi-Chun Li, Chuan Lai, Yu-Chuan Chan, Chi-Ho Wang, Sue-Hong Ou, Shan-Chia |
Author_xml | – sequence: 1 givenname: Yi-Chun surname: Wang fullname: Wang, Yi-Chun organization: Department of Biomedical Sciences, Chung Shan Medical University, Taichung, Taiwan – sequence: 2 givenname: Chien-Ping surname: Chang fullname: Chang, Chien-Ping organization: Department of Biomedical Sciences, Chung Shan Medical University, Taichung, Taiwan – sequence: 3 givenname: Yu-Chuan surname: Lai fullname: Lai, Yu-Chuan organization: Department of Biomedical Sciences, Chung Shan Medical University, Taichung, Taiwan – sequence: 4 givenname: Chi-Ho surname: Chan fullname: Chan, Chi-Ho organization: Department of Medical Research, Chung Shan Medical University Hospital, Taichung, Taiwan – sequence: 5 givenname: Shan-Chia surname: Ou fullname: Ou, Shan-Chia organization: Department of Veterinary Medicine, Graduate Institute of Microbiology and Public Health, National Chung Hsing University, Taichung, Taiwan – sequence: 6 givenname: Sue-Hong surname: Wang fullname: Wang, Sue-Hong organization: Department of Biomedical Sciences, Chung Shan Medical University, Taichung, Taiwan – sequence: 7 givenname: Chuan surname: Li fullname: Li, Chuan email: cli@csmu.edu.tw organization: Department of Biomedical Sciences, Chung Shan Medical University, Taichung, Taiwan |
BackLink | https://www.ncbi.nlm.nih.gov/pubmed/36893875$$D View this record in MEDLINE/PubMed |
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Snippet | •A nine-exon configuration of the fibrillarin gene is conserved in vertebrates.•Internal exons are of the same lengths except exon 2 and 3 encoding the GAR... The nucleolar rRNA 2'-O-methyltransferase fibrillarin (FBL) contains a highly conserved methyltransferase domain at the C-terminus and a diverse glycine... The nucleolar rRNA 2′-O-methyltransferase fibrillarin (FBL) contains a highly conserved methyltransferase domain at the C-terminus and a diverse glycine... |
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SubjectTerms | Animals Arginine Birds chickens domain eukaryotic cells Exon length exons Exons - genetics Fibrillarin Glycine Glycine arginine rich (GAR) domain Methyltransferases phenylalanine Reptiles Reptiles - genetics RNA species Vertebrates - genetics |
Title | The conservation and diversity of the exons encoding the glycine and arginine rich domain of the fibrillarin gene in vertebrates, with special focus on reptiles and birds |
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