Search results for "Chromatin interactions"

showing 4 items of 4 documents

Evolutionary stability of topologically associating domains is associated with conserved gene regulation

2018

AbstractBackgroundThe human genome is highly organized in the three-dimensional nucleus. Chromosomes fold locally into topologically associating domains (TADs) defined by increased intra-domain chromatin contacts. TADs contribute to gene regulation by restricting chromatin interactions of regulatory sequences, such as enhancers, with their target genes. Disruption of TADs can result in altered gene expression and is associated to genetic diseases and cancers. However, it is not clear to which extent TAD regions are conserved in evolution and whether disruption of TADs by evolutionary rearrangements can alter gene expression.ResultsHere, we hypothesize that TADs represent essential functiona…

0301 basic medicinePhysiologyEvolutionGenome rearrangementsGene ExpressionGenomicsPlant ScienceComputational biologyBiologyGenomeGeneral Biochemistry Genetics and Molecular BiologyEvolution Molecular03 medical and health sciencesMiceStructural BiologyHi-CGene expressionAnimalsHumansEnhancerlcsh:QH301-705.5GeneSelectionEcology Evolution Behavior and SystematicsRegulation of gene expressionGenomeTopologically associating domainsGenome HumanCell BiologyTADChromatin Assembly and DisassemblyChromatinGene regulation030104 developmental biologylcsh:Biology (General)Gene Expression RegulationRegulatory sequenceHuman genomeGeneral Agricultural and Biological SciencesStructural variantsChromatin interactions3D genome architectureDevelopmental BiologyBiotechnologyResearch ArticleBMC Biology
researchProduct

Concepts to Reveal Parvovirus–Nucleus Interactions

2021

Parvoviruses are small single-stranded (ss) DNA viruses, which replicate in the nucleoplasm and affect both the structure and function of the nucleus. The nuclear stage of the parvovirus life cycle starts at the nuclear entry of incoming capsids and culminates in the successful passage of progeny capsids out of the nucleus. In this review, we will present past, current, and future microscopy and biochemical techniques and demonstrate their potential in revealing the dynamics and molecular interactions in the intranuclear processes of parvovirus infection. In particular, a number of advanced techniques will be presented for the detection of infection-induced changes, such as DNA modification…

Cell Nucleusanalysis of virus–chromatin interactionsHost Microbial InteractionsviruksetparvovirusesvirusesnucleusReviewmikroskopiaanalysis of protein–protein interactionsVirus ReplicationinfektiotMicrobiologyimaging of viral interactions and dynamicsQR1-502Parvoviridae InfectionsParvovirusMicekuvantaminentumaAnimalsHumansCapsid ProteinsproteiinitparvoviruksetViruses
researchProduct

7C: Computational Chromosome Conformation Capture by Correlation of ChIP-seq at CTCF motifs.

2019

Abstract Background Knowledge of the three-dimensional structure of the genome is necessary to understand how gene expression is regulated. Recent experimental techniques such as Hi-C or ChIA-PET measure long-range chromatin interactions genome-wide but are experimentally elaborate, have limited resolution and such data is only available for a limited number of cell types and tissues. Results While ChIP-seq was not designed to detect chromatin interactions, the formaldehyde treatment in the ChIP-seq protocol cross-links proteins with each other and with DNA. Consequently, also regions that are not directly bound by the targeted TF but interact with the binding site via chromatin looping are…

CCCTC-Binding Factorlcsh:QH426-470Protein Conformationlcsh:Biotechnologygenetic processesComputational biologyBiologyGenomeChromosomesBioconductorChromosome conformation capture03 medical and health sciences0302 clinical medicine6CHi-Clcsh:TP248.13-248.65GeneticsTranscription factorsHumansnatural sciencesNucleotide Motifs4CChIA-PET030304 developmental biologyChromatin loops0303 health sciencesThree-dimensional genome architectureChromatinChromatinChIP-seq7Clcsh:Genetics5CCTCFChromatin Immunoprecipitation SequencingHuman genomeDNA microarrayChIA-PET3CPrediction030217 neurology & neurosurgeryChromatin interactionsBiotechnologyHeLa CellsResearch ArticleBMC genomics
researchProduct

The distributions of protein coding genes within chromatin domains in relation to human disease.

2019

Abstract Background Our understanding of the nuclear chromatin structure has increased hugely during the last years mainly as a consequence of the advances in chromatin conformation capture methods like Hi-C. The unprecedented resolution of genome-wide interaction maps shows functional consequences that extend the initial thought of an efficient DNA packaging mechanism: gene regulation, DNA repair, chromosomal translocations and evolutionary rearrangements seem to be only the peak of the iceberg. One key concept emerging from this research is the topologically associating domains (TADs) whose functional role in gene regulation and their association with disease is not fully untangled. Resul…

lcsh:QH426-470Computational biologyBiologyChromatin structureCell LineChromosome conformation captureOpen Reading FramesGene expressionDatabases GeneticGeneticsEnhancersHumansDiseaseEnhancerMolecular BiologyGeneRegulation of gene expressionHousekeeping genesTopologically associating domainsResearchHuman diseasesTADGenes associated with diseaseHuman geneticsChromatinChromatinHousekeeping geneGene regulationlcsh:GeneticsEnhancer Elements GeneticTranscription Initiation SiteChromatin interactionsEpigeneticschromatin
researchProduct