The nuclear space is a dynamic environment in which DNA molecules interact across time, space and scale. Within the nucleus different yet adjacent chromosomes are co- regulated through shared chromatin modifications or the influence of global enhancer or repressor units. The interactions between adjacent chromosomes can be analysed though Hi-C, a technique that takes a whole genome view on samples obtained by chromosome confirmation capture. This technique has been used in many different plant species and this article provides a consensus protocol that is merged from those used in two expert labs
International audienceThe long linear chromosomes of eukaryotic organisms are tightly packed into th...
Gene regulation in higher eukaryotes frequently involves physical interactions between genomic seque...
Genetic information in the cell nucleus controls organismal development, responses to the environmen...
Higher-order chromatin structure undergoes striking changes in response to various developmental and...
Nuclear organization and higher-order chromosome structure in interphase nuclei are thought to have ...
The intricate folding of chromatin enables living organisms to store genomic material in an extremel...
Chromosome conformation capture (3C), coupled with next-generation sequencing (Hi-C), provides a mea...
We describe a method, Hi-C, to comprehensively detect chromatin interactions in the mammalian nucleu...
Eukaryotic genomes are highly organised within the nucleus of a cell, allowing widely dispersed regu...
The three-dimensional architecture of chromatin in the nucleus is important for genome regulation an...
Genome regulation takes place at different hierarchically interconnected levels: the DNA sequence le...
Nuclear genome organization has recently received increasing attention due to its manifold functions...
Gene regulation in higher eukaryotes frequently involves physical interactions between genomic seque...
All flowering plants have evolved through multiple rounds of polyploidy throughout the evolutionary ...
The spatial arrangement of interphase chromosomes in the nucleus is important for gene expression an...
International audienceThe long linear chromosomes of eukaryotic organisms are tightly packed into th...
Gene regulation in higher eukaryotes frequently involves physical interactions between genomic seque...
Genetic information in the cell nucleus controls organismal development, responses to the environmen...
Higher-order chromatin structure undergoes striking changes in response to various developmental and...
Nuclear organization and higher-order chromosome structure in interphase nuclei are thought to have ...
The intricate folding of chromatin enables living organisms to store genomic material in an extremel...
Chromosome conformation capture (3C), coupled with next-generation sequencing (Hi-C), provides a mea...
We describe a method, Hi-C, to comprehensively detect chromatin interactions in the mammalian nucleu...
Eukaryotic genomes are highly organised within the nucleus of a cell, allowing widely dispersed regu...
The three-dimensional architecture of chromatin in the nucleus is important for genome regulation an...
Genome regulation takes place at different hierarchically interconnected levels: the DNA sequence le...
Nuclear genome organization has recently received increasing attention due to its manifold functions...
Gene regulation in higher eukaryotes frequently involves physical interactions between genomic seque...
All flowering plants have evolved through multiple rounds of polyploidy throughout the evolutionary ...
The spatial arrangement of interphase chromosomes in the nucleus is important for gene expression an...
International audienceThe long linear chromosomes of eukaryotic organisms are tightly packed into th...
Gene regulation in higher eukaryotes frequently involves physical interactions between genomic seque...
Genetic information in the cell nucleus controls organismal development, responses to the environmen...