Research output: Contribution to journal › Article › peer-review
Organ-specific transcripts as a source of gene multifunctionality: lessons learned from the Drosophila melanogaster sbr (Dm nxf1) gene. / Mamon, Ludmila ; Ginanova, Viktoria ; Kliver, Sergey ; Toropko, Mariya ; Golubkova, Elena .
In: Biological Communications, Vol. 64, No. 2, 2019, p. 146-157.Research output: Contribution to journal › Article › peer-review
}
TY - JOUR
T1 - Organ-specific transcripts as a source of gene multifunctionality: lessons learned from the Drosophila melanogaster sbr (Dm nxf1) gene
AU - Mamon, Ludmila
AU - Ginanova, Viktoria
AU - Kliver, Sergey
AU - Toropko, Mariya
AU - Golubkova, Elena
N1 - Mamon, L., Ginanova, V., Kliver, S., Toropko, M., and Golubkova, E. 2019. Organ-specific transcripts as a source of gene multifunctionality: lessons learned from the Drosophila melanogaster sbr(Dm nxf1) gene. Bio. Comm. 64(2): 146–157.
PY - 2019
Y1 - 2019
N2 - Analysis of the transcriptomes of different organisms has demonstrated that a single gene can have multiple transcripts. The sources of transcriptional vari-ability are the alternative promoters, polyadenylation sites, splicing, and RNA editing. A comparison of the organisms of different taxa has demonstrated that the complexity of organization during evolution arises not due to an increase in the number of protein-coding genes. The greatest variability of transcripts is specific to the nervous and germinal systems. A variety of mechanisms provid-ing for the complexity of the transcriptome ensures a precise and coordinated regulation of organ-specific functions through a combination of cis-acting el-ements and trans-acting factors. The D. melanogaster sbr (Dm nxf1) gene has proven to be an excellent model for investigating mechanisms potentially lead-ing to the emergence of multiple products with various functions.
AB - Analysis of the transcriptomes of different organisms has demonstrated that a single gene can have multiple transcripts. The sources of transcriptional vari-ability are the alternative promoters, polyadenylation sites, splicing, and RNA editing. A comparison of the organisms of different taxa has demonstrated that the complexity of organization during evolution arises not due to an increase in the number of protein-coding genes. The greatest variability of transcripts is specific to the nervous and germinal systems. A variety of mechanisms provid-ing for the complexity of the transcriptome ensures a precise and coordinated regulation of organ-specific functions through a combination of cis-acting el-ements and trans-acting factors. The D. melanogaster sbr (Dm nxf1) gene has proven to be an excellent model for investigating mechanisms potentially lead-ing to the emergence of multiple products with various functions.
KW - alternative polyadenylation
KW - alternative splicing
KW - D. melanogaster
KW - Intron retention
KW - NXF (Nuclear Export Factor)
KW - transcriptional variability
KW - alternative polyadenylation
KW - alternative splicing
KW - D. melanogaster
KW - Intron retention
KW - NXF (Nuclear Export Factor)
KW - transcriptional variability
UR - https://biocomm.spbu.ru/article/view/5037/4593
UR - https://elibrary.ru/item.asp?id=39239061
M3 - Article
VL - 64
SP - 146
EP - 157
JO - Biological Communications
JF - Biological Communications
SN - 2542-2154
IS - 2
ER -
ID: 50674092