Spatial organization is an inherent property of the vertebrate genome to accommodate the roughly 2m of DNA in the nucleus of a cell. In this nonrandom organization, topologically associating domains (TADs) emerge as a fundamental structural unit that is thought to guide regulatory elements to their cognate promoters. In this review we summarize the most recent findings about TADs and the boundary regions separating them. We discuss how the disruption of these structures by genomic rearrangements can result in gene misexpression and disease
Most animal genomes fold in 3D chromatin domains called topologically associated domains (TADs) that...
Chromosome conformation capture methods have identified subchromosomal structures of higher-order ch...
Chromosome conformation capture methods have identified subchromosomal structures of higher-order ch...
Spatial organization is an inherent property of the vertebrate genome to accommodate the roughly 2m ...
Topologically Associating Domains (TADs) are conserved during evolution and play roles in guiding an...
Chromatin in the interphase nucleus is organised as a hierarchical series of structural domains, inc...
International audienceMammalian chromosomes are organized at different length scales within the cell...
The organization and folding of chromatin within the nucleus can determine the outcome of gene expre...
SummaryMammalian genomes are organized into megabase-scale topologically associated domains (TADs). ...
Summary Topologically associating domain (TAD) boundaries are thought to partition the genome into d...
Mammalian genomes are organized into megabase-scale topologically associated domains (TADs). We demo...
Mammalian genomes are organized into megabase-scale topologically associated domains (TADs). We demo...
Abstract Background Mechanisms underlying genome 3D organization and domain formation in the mammali...
Three-dimensional spatial organization of chromosomes is defined by highly self-interacting regions ...
The discovery of domains of preferential interaction or Topologically Associating Domains (TADs) has...
Most animal genomes fold in 3D chromatin domains called topologically associated domains (TADs) that...
Chromosome conformation capture methods have identified subchromosomal structures of higher-order ch...
Chromosome conformation capture methods have identified subchromosomal structures of higher-order ch...
Spatial organization is an inherent property of the vertebrate genome to accommodate the roughly 2m ...
Topologically Associating Domains (TADs) are conserved during evolution and play roles in guiding an...
Chromatin in the interphase nucleus is organised as a hierarchical series of structural domains, inc...
International audienceMammalian chromosomes are organized at different length scales within the cell...
The organization and folding of chromatin within the nucleus can determine the outcome of gene expre...
SummaryMammalian genomes are organized into megabase-scale topologically associated domains (TADs). ...
Summary Topologically associating domain (TAD) boundaries are thought to partition the genome into d...
Mammalian genomes are organized into megabase-scale topologically associated domains (TADs). We demo...
Mammalian genomes are organized into megabase-scale topologically associated domains (TADs). We demo...
Abstract Background Mechanisms underlying genome 3D organization and domain formation in the mammali...
Three-dimensional spatial organization of chromosomes is defined by highly self-interacting regions ...
The discovery of domains of preferential interaction or Topologically Associating Domains (TADs) has...
Most animal genomes fold in 3D chromatin domains called topologically associated domains (TADs) that...
Chromosome conformation capture methods have identified subchromosomal structures of higher-order ch...
Chromosome conformation capture methods have identified subchromosomal structures of higher-order ch...