Our understanding of higher order chromosome structure has been transformed through statistical mechanics-based computer simulations of polymer chains. A new study exploring basic electrostatic interactions demystifies how chromosomes regulate their state of compaction over several orders of magnitude. Our understanding of higher order chromosome structure has been transformed through statistical mechanics-based computer simulations of polymer chains. A new study exploring basic electrostatic interactions demystifies how chromosomes regulate their state of compaction over several orders of magnitude
In a recent issue of Cell, Fisher etal. (2013) use high-resolution time-lapse imaging to peer into b...
Recent super-resolution imaging technologies enable tracing chromatin conformation with nanometer-sc...
The rearrangement of interphase chromatin into mitotic chromosomes is crucial for faithful chromoso...
The revolution in understanding higher order chromosome dynamics and organization derives from treat...
AbstractMitotic chromosomes must be organised into a highly ordered and compacted form to allow prop...
Chromosomes have a complex architecture in the cell nucleus, which serves vital functional purposes,...
Polymer models have long been used to study the properties and behaviour of DNA, however the princip...
Clear organizational patterns on the genome have emerged from the statistics of population studies o...
The study of chromatin dynamics and motion is essential to the understanding of the rules of life; i...
The spatial organization of chromosomes has key functional roles, yet how chromosomes fold remains p...
The mechanism by which chromatids and chromosomes are segregated during mitosis and meiosis is a maj...
Thesis: Ph. D., Massachusetts Institute of Technology, Department of Physics, 2016.Cataloged from PD...
Mitotic chromosomes were one of the first cell biological structures to be described, yet their mole...
Mitotic chromosomes are essential structures for the faithful transmission of duplicated genomic DNA...
Understanding the mechanisms that control the organization of chromosomes in the space of the nucleu...
In a recent issue of Cell, Fisher etal. (2013) use high-resolution time-lapse imaging to peer into b...
Recent super-resolution imaging technologies enable tracing chromatin conformation with nanometer-sc...
The rearrangement of interphase chromatin into mitotic chromosomes is crucial for faithful chromoso...
The revolution in understanding higher order chromosome dynamics and organization derives from treat...
AbstractMitotic chromosomes must be organised into a highly ordered and compacted form to allow prop...
Chromosomes have a complex architecture in the cell nucleus, which serves vital functional purposes,...
Polymer models have long been used to study the properties and behaviour of DNA, however the princip...
Clear organizational patterns on the genome have emerged from the statistics of population studies o...
The study of chromatin dynamics and motion is essential to the understanding of the rules of life; i...
The spatial organization of chromosomes has key functional roles, yet how chromosomes fold remains p...
The mechanism by which chromatids and chromosomes are segregated during mitosis and meiosis is a maj...
Thesis: Ph. D., Massachusetts Institute of Technology, Department of Physics, 2016.Cataloged from PD...
Mitotic chromosomes were one of the first cell biological structures to be described, yet their mole...
Mitotic chromosomes are essential structures for the faithful transmission of duplicated genomic DNA...
Understanding the mechanisms that control the organization of chromosomes in the space of the nucleu...
In a recent issue of Cell, Fisher etal. (2013) use high-resolution time-lapse imaging to peer into b...
Recent super-resolution imaging technologies enable tracing chromatin conformation with nanometer-sc...
The rearrangement of interphase chromatin into mitotic chromosomes is crucial for faithful chromoso...