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Subfunctionalized expression drives evolutionary retention of ribosomal protein paralogs Rps27 and Rps27l in vertebrates

ABSTRACT: Subfunctionalized expression drives evolutionary retention of ribosomal protein paralogs Rps27 and Rps27l in vertebrates

PROVIDER: PRJNA833301 | ENA |

REPOSITORIES: ENA

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			Action	DRS
	SRR18970081.fastq.gz	Fastqsanger.gz
	SRR18970082.fastq.gz	Fastqsanger.gz
	SRR18970083.fastq.gz	Fastqsanger.gz
	SRR18970084.fastq.gz	Fastqsanger.gz
	SRR18970085.fastq.gz	Fastqsanger.gz

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Similar Datasets

Subfunctionalized expression drives evolutionary retention of ribosomal protein paralogs Rps27 and Rps27l in vertebrates

Project description:The formation of paralogs through gene duplication is a core evolutionary process. For paralogs that encode components of protein complexes such as the ribosome, a central question is whether they encode functionally distinct proteins, or whether they exist to maintain appropriate total expression of equivalent proteins. Here, we systematically tested evolutionary models of paralog function using the ribosomal protein paralogs Rps27 (eS27) and Rps27l (eS27L) as a case study. Evolutionary analysis suggests that Rps27 and Rps27l likely arose during whole-genome duplication(s) in a common vertebrate ancestor. We show that Rps27 and Rps27l have inversely correlated mRNA abundance across mouse cell types, with the highest Rps27 in lymphocytes and the highest Rps27l in mammary alveolar cells and hepatocytes. By endogenously tagging the Rps27 and Rps27l proteins, we demonstrate that Rps27- and Rps27l-ribosomes associate preferentially with different transcripts. Furthermore, murine Rps27 and Rps27l loss-of-function alleles are homozygous lethal at different developmental stages. However, strikingly, expressing Rps27 protein from the endogenous Rps27l locus or vice versa completely rescues loss-of-function lethality and yields mice with no detectable deficits. Together, these findings suggest that Rps27 and Rps27l are evolutionarily retained because their subfunctionalized expression patterns render both genes necessary to achieve the requisite total expression of two equivalent proteins across cell types. Our work represents the most in-depth characterization of a mammalian ribosomal protein paralog to date and highlights the importance of considering both protein function and expression when investigating paralogs.

2023-06-21 | GSE201845 | GEO

Subfunctionalized expression drives evolutionary retention of ribosomal protein paralogs <i>Rps27</i> and <i>Rps27l</i> in vertebrates.

Project description:The formation of paralogs through gene duplication is a core evolutionary process. For paralogs that encode components of protein complexes such as the ribosome, a central question is whether they encode functionally distinct proteins or whether they exist to maintain appropriate total expression of equivalent proteins. Here, we systematically tested evolutionary models of paralog function using the ribosomal protein paralogs Rps27 (eS27) and Rps27l (eS27L) as a case study. Evolutionary analysis suggests that Rps27 and Rps27l likely arose during whole-genome duplication(s) in a common vertebrate ancestor. We show that Rps27 and Rps27l have inversely correlated mRNA abundance across mouse cell types, with the highest Rps27 in lymphocytes and the highest Rps27l in mammary alveolar cells and hepatocytes. By endogenously tagging the Rps27 and Rps27l proteins, we demonstrate that Rps27- and Rps27l-ribosomes associate preferentially with different transcripts. Furthermore, murine Rps27 and Rps27l loss-of-function alleles are homozygous lethal at different developmental stages. However, strikingly, expressing Rps27 protein from the endogenous Rps27l locus or vice versa completely rescues loss-of-function lethality and yields mice with no detectable deficits. Together, these findings suggest that Rps27 and Rps27l are evolutionarily retained because their subfunctionalized expression patterns render both genes necessary to achieve the requisite total expression of two equivalent proteins across cell types. Our work represents the most in-depth characterization of a mammalian ribosomal protein paralog to date and highlights the importance of considering both protein function and expression when investigating paralogs.

| S-EPMC10313321 | biostudies-literature

RNA-binding protein RPS27 and gene expression regulation in human umbilical vein endothelial cells (HUVECs)

Project description:RPS27, a significantly down-regulated and validated RBP in kaposi's sarcoma (KS), and known to be associated with viral infection. As KS is an endothelial cell cancer, we used HUVECs as the cell model to explore the functions of RPS27. RNA-seq technology was used to investigate the differentially expressed genes in HUVECs. By using small interference RNAs (siRNAs) to silence the expression of RPS27 (siRPS27), we detected significant decrease of RPS27 expression in RNA levels comparing with the negative control (siNC) samples.

2024-03-31 | GSE255600 | GEO

Expression profile of S. pombe cells with ribosomal protein L32 paralogs

Project description:We cultured the cells of S. pmbe in EMM2, and harvested them in the OD600 of 0.5 and 10 respectively. We used microarrays to detail the the global program of gene expression of SP-Q01 and SP-Q01 carrying vevtor pESP3X to overexpress either ribosomal protein L32 paralog in the OD600 of 0.5 and 10 respectively. We constructed the ribosomal protein L32 paralog overexpression strains to mimic the expression pattern of RPL32 paralogs in wild-type cells of S.pombe. We cultured the cells to different growth phase, and used microarray to identify the genes were regulated distinctively by RPL32 paralogs.

2013-03-01 | E-GEOD-43827 | biostudies-arrayexpress

RNA-binding protein RPS27 and gene expression regulation in Kaposi’s sarcoma [RIP-seq]

Project description:In order to clarify the post-transcriptional regulatory network of RPS27 in KS. We constructed a transcriptomic binding network using iRIP-seq. The KS lesions of the other two patients were used for separately.

2023-10-20 | GSE212960 | GEO

Duplicated ribosomal protein paralogs promote alternative translation and drug resistance

Project description:Ribosomes are often seen as monolithic machines produced from uniformly regulated genes. However, in yeast most ribosomal proteins come from duplicated genes. Here, we demonstrate that gene duplication may serve as a stress-adaptation mechanism modulating the global proteome through the differential expression of ribosomal protein paralogs. Our data indicate that the yeast paralog pair of the ribosomal protein L7/uL30 produces two differentially acetylated proteins. Under normal conditions most ribosomes incorporate the hypo-acetylated major form favoring the translation of genes with short open reading frames. Exposure to drugs, on the other hand, increases the production of ribosomes carrying the hyper-acetylated minor paralog that increases translation of long open reading frames. Many of these paralogs dependent genes encode cell wall proteins that could promote tolerance to drugs as their translation increases after exposure to drugs. Together the data reveal a mechanism of translation control through the differential use of near-identical ribosomal protein isoforms.

2022-08-09 | PXD033843 | Pride

Duplicated ribosomal protein paralogs promote alternative translation and drug resistance

Project description:Duplicated ribosomal protein paralogs promote alternative translation and drug resistance

| PRJNA837278 | ENA

An Alternative Splicing Event Amplifies Evolutionary Differences Between Vertebrates

Project description:An Alternative Splicing Event Amplifies Evolutionary Differences Between Vertebrates

| PRJNA286111 | ENA

Duplicated ribosomal protein paralogs promote alternative translation and drug resistance

Project description:Ribosomes are often seen as monolithic machines produced from uniformly regulated genes. However, in yeast most ribosomal proteins come from duplicated genes. Here, we demonstrate that gene duplication may serve as an adaption mechanism modulating the global proteome through the differential expression of ribosomal proteins paralogs after exposure to stress. Our data indicate that the yeast paralog pair of the ribosomal protein L7/uL30 produces two differentially acetylated proteins. Under normal conditions most ribosomes incorporate the hypo-acetylated major form favoring the translation of genes with short open reading frames. Exposure to drugs, on the other hand, increases the production of ribosomes carrying the hyper-acetylated minor paralog that increases translation of long reading frames. Many of these long genes encode cell wall proteins that increase drug resistance in a programed change in translation equilibrium. Together the data reveal a mechanism of translation control through the differential fates of near-identical ribosomal protein isoforms.

2022-08-09 | GSE202803 | GEO

Identification of small ORFs in vertebrates using ribosome footprinting and evolutionary conservation

Project description:Identification of the coding elements in the genome is a fundamental step to understanding the building blocks of living systems. Short peptides (< 100 aa) have emerged as important regulators of development and physiology, but their identification has been limited by their size. We have leveraged the periodicity of ribosome movement on the mRNA to define actively translated ORFs by ribosome footprinting. This approach identifies several hundred translated small ORFs in zebrafish and human. Computational prediction of small ORFs from codon conservation patterns corroborates and extends these findings and identifies conserved sequences in zebrafish and human, suggesting functional peptide products (micropeptides). These results identify micropeptideM-bM-^@M-^Pencoding genes in vertebrates, providing an entry point to define their function in vivo. Ribosome profiling experiments at five timepoints across zebrafish development in WT embryos

2014-04-04 | E-GEOD-53693 | biostudies-arrayexpress

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