Search results for "Interaccions RNA-proteïna"

showing 3 items of 3 documents

A Trans-Omics Comparison Reveals Common Gene Expression Strategies in Four Model Organisms and Exposes Similarities and Differences between Them.

2021

AbstractThe ultimate goal of gene regulation should focus on the protein level. However, as mRNA is an obligate intermediary, and because the amounts of mRNAs and proteins are controlled by their synthesis and degradation rates, the cellular amount of a given protein can be attained following different strategies. By studying omics datasets for six expression variables (mRNA and protein amounts, plus their synthesis and decay rates), we previously demonstrated the existence of common expression strategies (CES) for functionally-related genes in the yeastSaccharomyces cerevisiae. Here we extend that study to two other eukaryotes: the distantly related yeastSchizosaccharomyces pombeand cultur…

0301 basic medicineTranscription GeneticRNA StabilityCèl·lulesSaccharomyces cerevisiaeved/biology.organism_classification_rank.speciesSaccharomyces cerevisiaeComputational biologytranscription ratetranslation rateArticle03 medical and health sciences0302 clinical medicinePhylogeneticsGene Expression Regulation FungalGene expressionHumansmRNA stabilityModel organismGenelcsh:QH301-705.5OrganismRegulation of gene expressionbiologyPhylogenetic treeved/biologyProkaryotephenogramGeneral Medicinebiology.organism_classification030104 developmental biologyprotein stabilitylcsh:Biology (General)Schizosaccharomyces pombe030217 neurology & neurosurgeryInteraccions RNA-proteïna
researchProduct

Exploring the Human-Nipah Virus Protein-Protein Interactome

2017

ABSTRACT Nipah virus is an emerging, highly pathogenic, zoonotic virus of the Paramyxoviridae family. Human transmission occurs by close contact with infected animals, the consumption of contaminated food, or, occasionally, via other infected individuals. Currently, we lack therapeutic or prophylactic treatments for Nipah virus. To develop these agents we must now improve our understanding of the host-virus interactions that underpin a productive infection. This aim led us to perform the present work, in which we identified 101 human-Nipah virus protein-protein interactions (PPIs), most of which (88) are novel. This data set provides a comprehensive view of the host complexes that are manip…

0301 basic medicineVirologiaParamyxoviridaeNipah virusviruses030106 microbiologyImmunologyComputational biologyBiologyMicrobiologyInteractomeMass SpectrometryVirusProtein–protein interactionViral Proteins03 medical and health sciencesVirologyAnimalsHumansProtein Interaction MapsHenipavirus InfectionsHost (biology)Transmission (medicine)Nipah VirusVirus Internalizationbiology.organism_classificationVirus-Cell Interactions030104 developmental biologyHenipavirus InfectionsInsect ScienceHost-Pathogen InteractionsInteraccions RNA-proteïna
researchProduct

Nucleo-cytoplasmic shuttling of RNA-binding factors: mRNA buffering and beyond.

2022

Gene expression is a highly regulated process that adapts RNAs and proteins content to the cellular context. Under steady-state conditions, mRNA homeostasis is robustly maintained by tight controls that act on both nuclear transcription and cytoplasmic mRNA stability. In recent years, it has been revealed that several RNA-binding proteins (RBPs) that perform functions in mRNA decay can move to the nucleus and regulate transcription. The RBPs involved in transcription can also travel to the cytoplasm and regulate mRNA degradation and/or translation. The multifaceted functions of these shuttling nucleo-cytoplasm RBPs have raised the possibility that they can act as mRNA metabolism coordinator…

Cell NucleusCytoplasmRNA StabilityBiophysicsRNA-Binding ProteinsRNA-binding proteinsBiochemistryTranscripció genèticaShuttlingmRNA decayStructural BiologyGeneticsRNARNA MessengerMolecular BiologyCrosstalkTranscriptionInteraccions RNA-proteïna
researchProduct