0000000000677280

AUTHOR

José Aguilar-rodríguez

showing 2 related works from this author

The gypsy database (GyDB) of mobile genetic elements: release 2.0

2011

This article introduces the second release of the Gypsy Database of Mobile Genetic Elements (GyDB 2.0): a research project devoted to the evolutionary dynamics of viruses and transposable elements based on their phylogenetic classification (per lineage and protein domain). The Gypsy Database (GyDB) is a long-term project that is continuously progressing, and that owing to the high molecular diversity of mobile elements requires to be completed in several stages. GyDB 2.0 has been powered with a wiki to allow other researchers participate in the project. The current database stage and scope are long terminal repeats (LTR) retroelements and relatives. GyDB 2.0 is an update based on the analys…

0106 biological sciencesProtein domainretroelementsLineage (evolution)[SDV]Life Sciences [q-bio]Retroviridae ProteinsCaulimoviridaeEukaryote evolutioncomputer.software_genrephylogeny01 natural sciencesDatabases GeneticRefSeqPhylogenyPriority journalbase de données0303 health sciencesRetrovirusPhylogenetic treeDatabaseSequence analysisdatabases geneticArticlesClassificationChemistryGenetic lineRetroelementsGenetic databaseComputer programBiologyArticleMobile genetic element03 medical and health sciencesLong terminal repeatWeb pagephylogénieVirus proteinGeneticsLife Science[SDV.BV]Life Sciences [q-bio]/Vegetal BiologyAccess to informationTransposon030304 developmental biologyretroelements;phylogeny;software;terminal repeat sequences;databases geneticHidden Markov modelCauliflower mosaic virusCaulimovirussoftwareRetroposonTerminal Repeat SequencesDNA structureInterspersed Repetitive Sequencesterminal repeat sequencesNonhumanRetroviridaeData analysis softwareGenetic variabilityMobile genetic elementscomputerLENGUAJES Y SISTEMAS INFORMATICOSSoftware010606 plant biology & botanyPhylogenetic nomenclaturePhylogenetic tree
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Fitness Trade-Offs Determine the Role of the Molecular Chaperonin GroEL in Buffering Mutations

2015

Molecular chaperones fold many proteins and their mutated versions in a cell and can sometimes buffer the phenotypic effect of mutations that affect protein folding. Unanswered questions about this buffering include the nature of its mechanism, its influence on the genetic variation of a population, the fitness trade-offs constraining this mechanism, and its role in expediting evolution. Answering these questions is fundamental to understand the contribution of buffering to increase genetic variation and ecological diversification. Here, we performed experimental evolution, genome resequencing, and computational analyses to determine the trade-offs and evolutionary trajectories of Escherich…

PopulationGenetic FitnessBiologyGroELCell LineChaperonin10127 Institute of Evolutionary Biology and Environmental StudiesGenetic drift1311 Geneticsmutational bufferingOperonGenetic variationGenetics1312 Molecular BiologyEscherichia coliexperimental evolutioneducationMolecular BiologyDiscoveriesEcology Evolution Behavior and Systematics2. Zero hungerGeneticseducation.field_of_studyExperimental evolutionGenetic DriftChaperonin 60Gene Expression Regulation BacterialGroEL1105 Ecology Evolution Behavior and SystematicsGenes BacterialMutation570 Life sciences; biology590 Animals (Zoology)bacteriaProtein foldingGenetic FitnessDirected Molecular EvolutionSubcellular Fractions
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