How do chromosomes fold and how does this depend on the organism and type of cell? This question has been addressed by a model and a methodology that uses only very basic constituents to capture the relevant features of folding. Key is the dynamic formation of loops within the chromosome. With this and entropy we show that the model is capable to describe the folding of human chromosomes in inter- and metaphase as well as for the Escherichia coli circular chromosomes
The 3D organisation of the genome in interphase cells is not a randomly folded polymer. Rather, expe...
Recent technological advances in the field of chromosome conformation capture are facilitating treme...
Mitotic chromosomes are among the most recognizable structures in the cell, yet for over a century t...
In vivo, the human genome folds into a characteristic ensemble of 3D structures. The mechanism drivi...
Genome function in higher eukaryotes involves major changes in the spatial organization of the chrom...
There is rapidly growing evidence that folding of the chromatin fibre inside the interphase nucleus ...
International audienceCharacterizing the link between small-scale chromatin structure and large-scal...
Chromatin has a complex spatial organization in the cell nucleus that serves vital functional purpos...
AbstractDuring the eukaryotic cell cycle, chromatin undergoes several conformational changes, which ...
Chromatin has a complex spatial organization in the cell nucleus that serves vital functional purpos...
Mitotic chromosomes are among the most recognizable structures in the cell, yet for over a century t...
This is an invited review about the system biology approaches to model the complex spatial organizat...
Despite the successful linear sequencing of the human genome its three-dimensional structure is wide...
We introduce a computational model to simulate chromatin structure and dynamics. Starting from one-d...
The 2 m-long human DNA is tightly intertwined into the cell nucleus of the size of 10 μm. ...
The 3D organisation of the genome in interphase cells is not a randomly folded polymer. Rather, expe...
Recent technological advances in the field of chromosome conformation capture are facilitating treme...
Mitotic chromosomes are among the most recognizable structures in the cell, yet for over a century t...
In vivo, the human genome folds into a characteristic ensemble of 3D structures. The mechanism drivi...
Genome function in higher eukaryotes involves major changes in the spatial organization of the chrom...
There is rapidly growing evidence that folding of the chromatin fibre inside the interphase nucleus ...
International audienceCharacterizing the link between small-scale chromatin structure and large-scal...
Chromatin has a complex spatial organization in the cell nucleus that serves vital functional purpos...
AbstractDuring the eukaryotic cell cycle, chromatin undergoes several conformational changes, which ...
Chromatin has a complex spatial organization in the cell nucleus that serves vital functional purpos...
Mitotic chromosomes are among the most recognizable structures in the cell, yet for over a century t...
This is an invited review about the system biology approaches to model the complex spatial organizat...
Despite the successful linear sequencing of the human genome its three-dimensional structure is wide...
We introduce a computational model to simulate chromatin structure and dynamics. Starting from one-d...
The 2 m-long human DNA is tightly intertwined into the cell nucleus of the size of 10 μm. ...
The 3D organisation of the genome in interphase cells is not a randomly folded polymer. Rather, expe...
Recent technological advances in the field of chromosome conformation capture are facilitating treme...
Mitotic chromosomes are among the most recognizable structures in the cell, yet for over a century t...