Search results for " genomi"

showing 10 items of 572 documents

Evolutionary Dissection of the Dot/Icm System Based on Comparative Genomics of 58 Legionella Species

2019

14 páginas, 2 figuras, 2 tablas

MESH: Selection GeneticLegionella pneumophilaMESH: Bacterial Proteins/metabolism*Negative selectionPositive-selectionDot/Icm systemMESH: PhylogenyNegative-selectionPhylogenyMESH: Evolution MolecularRecombination Genetic0303 health sciencesEffectorMESH: GenomicsGenomics3. Good healthCell biologypositive-selectionDiversifying-selectionMESH: Recombination GeneticMESH: Membrane ProteinsResearch ArticleSignal peptidenegative-selectionEvolutionLegionellaMESH: Carrier ProteinsBiologyMESH: Bacterial Proteins/geneticsEvolution MolecularType IV Secretion Systems03 medical and health sciencesdiversifying-selectionMESH: Type IV Secretion Systems*Bacterial Proteins[SDV.BBM.GTP]Life Sciences [q-bio]/Biochemistry Molecular Biology/Genomics [q-bio.GN]evolutionGeneticsSecretionSelection GeneticEcology Evolution Behavior and SystematicsMESH: Legionella/classification030304 developmental biologyComparative genomicsMESH: Legionella/metabolism030306 microbiologyMESH: Legionella/geneticsMembrane ProteinsPeriplasmic spacebiology.organism_classificationCytoplasmCarrier Proteins
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Pig domestication and human-mediated dispersal in western Eurasia revealed through ancient DNA and geometric morphometrics.

2013

Zooarcheological evidence suggests that pigs were domesticated in Southwest Asia ∼8,500 BC. They then spread across the Middle and Near East and westward into Europe alongside early agriculturalists. European pigs were either domesticated independently or more likely appeared so as a result of admixture between introduced pigs and European wild boar. As a result, European wild boar mtDNA lineages replaced Near Eastern/Anatolian mtDNA signatures in Europe and subsequently replaced indigenous domestic pig lineages in Anatolia. The specific details of these processes, however, remain unknown. To address questions related to early pig domestication, dispersal, and turnover in the Near East, we …

MESH: Sequence Analysis DNAsequence analysisSwineSus scrofa[SHS.ANTHRO-BIO]Humanities and Social Sciences/Biological anthropologyinsightsshapephylogeography01 natural sciences11. SustainabilityexpansionsMESH: AnimalswildNeolithicMESH: Swineagriculture0303 health sciencesKUL-METH-ArchaeologyMESH: AsiaPig domesticationmitochondrialEuropeDomestic pigMESH: PhylogeographyAnimals DomestichistoryMESH: Molareuropewild boar010506 paleontologyKUL-CoE-CASoriginsAsialikelihoodneolithic; phylogeography; pig domestication; wild boar; animal distribution; animals; animals domestic; Asia; DNA mitochondrial; Europe; humans; molar; phylogeography; sequence analysis DNA; Sus scrofa; SwineZoologypig domesticationfarmersBiologyNeolithic.Animal Breeding and GenomicsSettore BIO/08Wild boarDNA Mitochondrial03 medical and health sciencesWild boarBronze Agebiology.animalGeneticsdomesticAnimalsHumansFokkerij en GenomicaMESH: Animals DomesticDomesticationMolecular BiologyEcology Evolution Behavior and SystematicsDiscoveries030304 developmental biology0105 earth and related environmental sciencesMESH: Humans[SDV.GEN.GPO]Life Sciences [q-bio]/Genetics/Populations and Evolution [q-bio.PE]MESH: Animal DistributionMESH: DNA MitochondrialDNASequence Analysis DNAMolarMESH: Sus scrofaAncient DNAIron AgeWIASBiological dispersalMESH: EuropeAnimal DistributionChronology
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Aminopropyltransferases involved in polyamine biosynthesis localize preferentially in the nucleus of plant cells

2012

Plant aminopropyltransferases consist of a group of enzymes that transfer aminopropyl groups derived from decarboxylated S-adenosyl-methionine (dcAdoMet or dcSAM) to propylamine acceptors to produce polyamines, ubiquitous metabolites with positive charge at physiological pH. Spermidine synthase (SPDS) uses putrescine as amino acceptor to form spermidine, whereas spermine synthase (SPMS) and thermospermine synthase (TSPMS) use spermidine as acceptor to synthesize the isomers spermine and thermospermine respectively. In previous work it was shown that both SPDS1 and SPDS2 can physically interact with SPMS although no data concerning the subcellular localization was reported. Here we study the…

Macromolecular AssembliesProteomicsS-AdenosylmethioninePlant anatomyImmunohistoquímicaArabidopsislcsh:MedicineSecondary MetabolismSpermineExpressionPlant ScienceSpermidine synthaseBiochemistrychemistry.chemical_compoundBimolecular fluorescence complementationCytosolMolecular Cell BiologyPolyaminesPlant Genomicslcsh:SciencePlant Growth and DevelopmentMultidisciplinarybiologyPlant BiochemistryArabidopsis-ThalianaGenomicsImmunohistochemistryMetabolismeFunctional GenomicsBiochemistrySpermine synthasePlant proteinPlant PhysiologyMechanismResearch ArticleHistologyAcyltransferasePlant Cell BiologyActive Transport Cell NucleusSpermidine SynthaseBimolecular fluorescence complementationProtein InteractionsBiologyCell NucleusCrystal-Structurelcsh:RHistologiaBotanyProtein interactionsSubcellular localizationAnatomia vegetalExpressió gènicaMolecular WeightSpermidineMetabolismchemistryDecarboxylasebiology.proteinPutrescineBotànicalcsh:QGene expressionSpermidine synthase
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A model species for agricultural pest genomics: the genome of the Colorado potato beetle, Leptinotarsa decemlineata (Coleoptera: Chrysomelidae)

2018

AbstractThe Colorado potato beetle is one of the most challenging agricultural pests to manage. It has shown a spectacular ability to adapt to a variety of solanaceaeous plants and variable climates during its global invasion, and, notably, to rapidly evolve insecticide resistance. To examine evidence of rapid evolutionary change, and to understand the genetic basis of herbivory and insecticide resistance, we tested for structural and functional genomic changes relative to other arthropod species using genome sequencing, transcriptomics, and community annotation. Two factors that might facilitate rapid evolutionary change include transposable elements, which comprise at least 17% of the gen…

Male0106 biological sciences0301 basic medicineGenome Insectlcsh:Medicine01 natural sciencesGenomeNucleotide diversityInsecticide Resistancepomme de terreTRIBOLIUM-CASTANEUMlcsh:ScienceLeptinotarsaCYSTEINE PROTEINASESPhylogeny2. Zero hungereducation.field_of_studyGenomeMultidisciplinarybiologyinsecte ravageurEcologyGenètica vegetalAgricultureleptinotarsa decemlineataGenomicsS-TRANSFERASE GENESlutte contre les ravageursColeopteraOther Physical Sciencesphénotypeespèce modèleMultigene FamilyInsect ProteinsRNA InterferenceFemaleBiotechnologyAutre (Sciences du Vivant)Genome evolutiondoryphorecoleopteraEvolutionPopulationPopulationRNA-INTERFERENCEGenomicsGEOGRAPHIC POPULATIONSArticleDNA sequencingHost-Parasite InteractionsEvolution Molecular03 medical and health sciences[SDV.BBM.GTP]Life Sciences [q-bio]/Biochemistry Molecular Biology/Genomics [q-bio.GN]GeneticsAnimalsanalyse génomiquePest Control BiologicaleducationQH426GeneSolanum tuberosumComparative genomicsbusiness.industrychrysomelidaelcsh:RHuman GenomefungiColorado potato beetlePest controlBiology and Life SciencesMolecularGenetic VariationMolecular Sequence AnnotationBiologicalbiology.organism_classification010602 entomologyGenòmicaGenetics Population030104 developmental biologyGene Expression RegulationDROSOPHILA-MELANOGASTERPROTEINASE-INHIBITORSEvolutionary biologyTRANSPOSABLE ELEMENTSDNA Transposable Elementslcsh:QPest ControlBiochemistry and Cell BiologyPEST analysisCAENORHABDITIS-ELEGANSbusinessInsectTranscription Factors
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TBL1XR1 mutations in Pierpont syndrome are not restricted to the recurrent p.Tyr446Cys mutation

2018

IF 2.264; International audience; Pierpont syndrome is a rare and sporadic syndrome, including developmental delay, facial characteristics, and abnormal extremities. Recently, a recurrent de novo TBL1XR1 variant (c.1337A > G; p.Tyr446Cys) has been identified in eight patients by whole‐exome sequencing. A dominant‐negative effect of this mutation is strongly suspected, since patients with TBL1XR1 deletion and other variants predicting loss of function do not share the same phenotype. We report two patients with typical Pierpont‐like syndrome features. Exome sequencing allowed identifying a de novo heterozygous missense TBL1XR1 variant in both patients, different from those already reported: …

Male0301 basic medicineAdolescentGenotypeReceptors Cytoplasmic and NuclearBiology03 medical and health sciences0302 clinical medicinePIERPONT SYNDROMEGeneticsHumansTBL1XR1Missense mutationAbnormalities MultipleRecurrent mutationGenetic TestingAllelesGenetics (clinical)Exome sequencingLoss functionUltrasonographyGeneticsComparative Genomic Hybridization[SDV.GEN]Life Sciences [q-bio]/GeneticsBrainFaciesNuclear ProteinsSyndromeMagnetic Resonance ImagingPhenotype3. Good healthRepressor ProteinsPhenotype030104 developmental biologyAmino Acid Substitution030220 oncology & carcinogenesisMutationMutation (genetic algorithm)Pierpont syndromeAmerican Journal of Medical Genetics Part A
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Genome-wide identification of runs of homozygosity islands and associated genes in local dairy cattle breeds

2018

Runs of homozygosity (ROH) are widely used as predictors of whole-genome inbreeding levels in cattle. They identify regions that have an unfavorable effect on a phenotype when homozygous, but also identify the genes associated with traits of economic interest present in these regions. Here, the distribution of ROH islands and enriched genes within these regions in four dairy cattle breeds were investigated. Cinisara (71), Modicana (72), Reggiana (168) and Italian Holstein (96) individuals were genotyped using the 50K v2 Illumina BeadChip. The genomic regions most commonly associated with ROHs were identified by selecting the top 1% of the single nucleotide polymorphisms (SNPs) most commonly…

Male0301 basic medicineCandidate generuns of homozygosity islandGenotypeRuns of homozygosity islands genomic regions candidate genes local dairy cattle bovine beadchip 50KLocus (genetics)Single-nucleotide polymorphismBiologyRuns of HomozygosityPolymorphism Single NucleotideGenomeSF1-1100bovine beadchip 50K; candidate genes; genomic regions; local dairy cattle; runs of homozygosity islands; Animal Science and ZoologySettore AGR/17 - Zootecnica Generale E Miglioramento Genetico03 medical and health sciencesAnimalsInbreedinggenomic regionsGeneDairy cattleGeneticslocal dairy cattleGenomeReproductionHomozygote0402 animal and dairy sciencecandidate gene04 agricultural and veterinary sciences040201 dairy & animal sciencegenomic regionAnimal cultureruns of homozygosity islandsDairyingPhenotype030104 developmental biologybovine beadchip 50KCattleFemaleAnimal Science and Zoologycandidate genesInbreeding
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Imbalance between genomic gain and loss identifies high-risk neuroblastoma patients with worse outcomes

2021

Survival in high-risk neuroblastoma (HR-NB) patients remains poor despite multimodal treatment. We aimed to identify HR-NB patients with worse outcomes by analyzing the genomic instability derived from segmental chromosomal aberrations. We calculated 3 genomic instability indexes for primary tumor SNP array profiles from 127 HR-NB patients: (1) Copy number aberration burden (%gainslength+%losseslength), (2) copy number load (CNL) (%gainslength-%losseslength) and (3) net genomic load (NGL) (%gainsamount-%lossesamount). Tumors were classified according to positive or negative CNL and NGL genomic subtypes. The impact of the genomic instability indexes on overall survival (OS) was assessed with…

Male0301 basic medicineGenome instabilityOncologyCancer ResearchCopy number loadSNPa single nucleotide polymorphism arrayNeuroblastoma0302 clinical medicineHigh risk neuroblastomaSegmental chromosomal aberrationsHR high-riskCNA copy number aberrationTumor biologyCNL copy number loaddNGL decreased net genomic loadlcsh:Neoplasms. Tumors. Oncology. Including cancer and carcinogensPrognosisPrimary tumornCNL negative copy number loadGI genomic instabilityHomogeneous030220 oncology & carcinogenesisMNA MYCN-amplificationFemaleHR-NB high-risk neuroblastomaNB neuroblastomaSNP arrayOriginal articlemedicine.medical_specialtyDNA Copy Number VariationsiNGL increased net genomic loadpCNL positive copy number loadhetMNA heterogeneous MYCN-amplificationlcsh:RC254-282Polymorphism Single NucleotideGenomic InstabilityUHR ultra-high-riskOS overall survivalNet genomic load03 medical and health sciencesSCA segmental chromosomal aberrationInternal medicineNeuroblastomamedicineHumansNGL net genomic loadGenetic Predisposition to DiseaseGenomic imbalanceGenetic Association StudiesEFS event-free survivalProportional Hazards ModelsChromosome AberrationsPloidieshomMNA homogeneous MYCN-amplificationProportional hazards modelbusiness.industryGene AmplificationGenetic Variationmedicine.diseasePatient Outcome AssessmentCopy number aberration burden030104 developmental biologybusinessNeoplasia
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Abnormal Hypermethylation at Imprinting Control Regions in Patients with S-Adenosylhomocysteine Hydrolase (AHCY) Deficiency

2016

S-adenosylhomocysteine hydrolase (AHCY) deficiency is a rare autosomal recessive disorder in methionine metabolism caused by mutations in the AHCY gene. Main characteristics are psychomotor delay including delayed myelination and myopathy (hypotonia, absent tendon reflexes etc.) from birth, mostly associated with hypermethioninaemia, elevated serum creatine kinase levels and increased genome wide DNA methylation. The prime function of AHCY is to hydrolyse and efficiently remove S-adenosylhomocysteine, the by-product of transmethylation reactions and one of the most potent methyltransferase inhibitors. In this study, we set out to more specifically characterize DNA methylation changes in blo…

Male0301 basic medicineMethyltransferaselcsh:MedicineArtificial Gene Amplification and ExtensionGlycine N-MethyltransferaseBiochemistryPolymerase Chain Reactionlaw.inventionMethionine0302 clinical medicinelawAmino Acidslcsh:SciencePolymerase chain reactionGeneticsDNA methylationMammalian GenomicsMultidisciplinaryOrganic CompoundsGenomicsMethylationChromatinEnzymes3. Good healthNucleic acidsChemistryPhysical SciencesDNA methylationEpigeneticsFemaleDNA modificationChromatin modificationResearch ArticleChromosome biologyCell biologyAlu elementBiologyResearch and Analysis MethodsGenomic Imprinting03 medical and health sciencesAlu ElementsGeneticsSulfur Containing Amino AcidsHumansRepeated SequencesMolecular Biology TechniquesMolecular BiologyAmino Acid Metabolism Inborn ErrorsGeneBiology and life sciencesOrganic Chemistrylcsh:RChemical CompoundsInfant NewbornProteinsInfantDNAMethyltransferasesCreatineMolecular biologyLong Interspersed Nucleotide Elements030104 developmental biologyDifferentially methylated regionsAnimal GenomicsEnzymologyAHCY ; Hypermethylationlcsh:QGene expressionGenomic imprinting030217 neurology & neurosurgeryDevelopmental BiologyPLOS ONE
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Incorporating Functional Genomic Information to Enhance Polygenic Signal and Identify Variants Involved in Gene-by-Environment Interaction for Young …

2018

BACKGROUND: Characterizing aggregate genetic risk for alcohol misuse and identifying variants involved in gene-by-environment (G × E) interaction effects has so far been a major challenge. We hypothesized that functional genomic information could be used to enhance detection of polygenic signal underlying alcohol misuse and to prioritize identification of single nucleotide polymorphisms (SNPs) most likely to exhibit G × E effects.METHODS: We examined these questions in the young adult FinnTwin12 sample (n = 1,170). We used genomewide association estimates from an independent sample to derive 2 types of polygenic scores for alcohol problems in FinnTwin12. Genomewide polygenic scores included…

Male0301 basic medicineMultifactorial InheritanceTwinsMedicine (miscellaneous)AlcoholToxicologyBioinformaticschemistry.chemical_compound0302 clinical medicineGene–environment interactionYoung adultta515FinlandGeneticsalcoholta3142GenomicsgenomiikkaPhenotypeAlcoholismPsychiatry and Mental health/dk/atira/pure/sustainabledevelopmentgoals/good_health_and_well_beingFemaleGenomic informationgeneettiset tekijätfunctional genomicsFunctional genomicsAdultympäristötekijätSingle-nucleotide polymorphismBiologyta3111Polymorphism Single NucleotideArticleYoung Adult03 medical and health sciencesSDG 3 - Good Health and Well-beingHumansGenetic Predisposition to Diseasenuoret aikuisetGenetic Variationalkoholiongelmatpolygenic scores030104 developmental biologychemistryGenomewide associationgene-environment interplayGene-Environment Interaction030217 neurology & neurosurgeryGenome-Wide Association StudyAlcoholism, Clinical and Experimental Research
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Shared genetic etiology between alcohol dependence and major depressive disorder

2018

Supplemental Digital Content is available in the text.

Male0301 basic medicineOncologyAlcoholism/geneticsMultifactorial Inheritancealcohol dependenceMedizinGenome-wide association study0302 clinical medicineRisk FactorsGermanyMedicineGenetics (clinical)Brief ReportRegression analysisAlcoholismPsychiatry and Mental healthpolygenic risk scoresMeta-analysisComputingMethodologies_DOCUMENTANDTEXTPROCESSINGRegression AnalysisMajor depressive disorderdisease comorbidityDepressive Disorder Major/geneticsmedicine.medical_specialtyBFPolymorphism Single Nucleotide03 medical and health sciencespsychiatric genomics consortiumInternal medicineGeneticsHumansGenetic Predisposition to Diseaseddc:610Biological PsychiatryDepressive Disorder Majormajor depressive disorderbusiness.industryAlcohol dependenceCase-control studymedicine.diseaseComorbidity030104 developmental biologySample size determinationCase-Control Studiesgenome-wide association studiesRC0321business030217 neurology & neurosurgeryGenome-Wide Association Study
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