The promoters of mammalian genes are commonly regulated by multiple distal enhancers, which physically interact within discrete chromatin domains. How such domains form and how the regulatory elements within them interact in single cells is not understood. To address this we developed Tri-C, a new chromosome conformation capture (3C) approach, to characterize concurrent chromatin interactions at individual alleles. Analysis by Tri-C identifies heterogeneous patterns of single-allele interactions between CTCF boundary elements, indicating that the formation of chromatin domains likely results from a dynamic process. Within these domains, we observe specific higher-order structures that involve simultaneous interactions between multiple enhan...
Next generation sequencing based methods allow us to identify active genes and potential regulatory ...
All somatic cells within an organism contain the same genetic material, yet they display pronounced ...
Abstract Transcriptional regulatory regions are often located several thousand bases from the gene t...
The promoters of mammalian genes are commonly regulated by multiple distal enhancers, which physical...
One of the most important outstanding questions in biology involves the precise spatial and temporal...
Chromatin folding is increasingly recognized as a regulator of genomic processes such as gene activi...
Chromatin folding is increasingly recognized as a regulator of genomic processes such as gene activi...
Gene regulation in eukaryotes involves complex interactions between promoters and regulatory element...
Specific communication between gene promoters and enhancers is critical for accurate regulation of g...
In higher eukaryotes, many genes are regulated by enhancers that are 104–106 base pairs (bp) away fr...
It is now well established that genome organization plays a major role in its functioning. Enhancers...
Chromatin interactions are important for gene regulation and cellular specialization. Emerging evide...
Chromosome conformation capture (3C) provides an adaptable tool for studying diverse biological ques...
Chromatin folding contributes to the regulation of genomic processes such as gene activity. Existing...
Deciphering long-range chromatin interactions is critical for understanding temporal and tissue-spec...
Next generation sequencing based methods allow us to identify active genes and potential regulatory ...
All somatic cells within an organism contain the same genetic material, yet they display pronounced ...
Abstract Transcriptional regulatory regions are often located several thousand bases from the gene t...
The promoters of mammalian genes are commonly regulated by multiple distal enhancers, which physical...
One of the most important outstanding questions in biology involves the precise spatial and temporal...
Chromatin folding is increasingly recognized as a regulator of genomic processes such as gene activi...
Chromatin folding is increasingly recognized as a regulator of genomic processes such as gene activi...
Gene regulation in eukaryotes involves complex interactions between promoters and regulatory element...
Specific communication between gene promoters and enhancers is critical for accurate regulation of g...
In higher eukaryotes, many genes are regulated by enhancers that are 104–106 base pairs (bp) away fr...
It is now well established that genome organization plays a major role in its functioning. Enhancers...
Chromatin interactions are important for gene regulation and cellular specialization. Emerging evide...
Chromosome conformation capture (3C) provides an adaptable tool for studying diverse biological ques...
Chromatin folding contributes to the regulation of genomic processes such as gene activity. Existing...
Deciphering long-range chromatin interactions is critical for understanding temporal and tissue-spec...
Next generation sequencing based methods allow us to identify active genes and potential regulatory ...
All somatic cells within an organism contain the same genetic material, yet they display pronounced ...
Abstract Transcriptional regulatory regions are often located several thousand bases from the gene t...