Chromatin is organized and segmented into a landscape of domains that serve multiple purposes. In contrast to transcription, which is controlled by defined sequences at distinct sites, DNA damage can occur anywhere. Repair accordingly must occur everywhere, yet it is inevitably affected by its chromatin environment. In this review, we summarize recent work investigating how changes in chromatin organization facilitate and/or guide DNA double-strand break repair. In addition, we examine new live cell studies on the dynamics of chromatin and the mechanisms that regulate its movement
The dynamics organization of the nuclear genome is essential for many biological processes and is of...
During DNA replication, transcription and DNA repair in eukaryotes, the cellular machineries perform...
Understanding how DNA repair processes occur in vivo when access to DNA is hindered by chromatin str...
Chromatin is organized and segmented into a landscape of domains that serve multiple purposes. In co...
International audienceThe inability to repair damaged DNA severely compromises the integrity of any ...
International audienceThe primary functions of the eukaryotic nucleus as a site for the storage, ret...
In eukaryotic cells, the inheritance of both the DNA sequence and its organization into chromatin is...
The presence of DNA breaks has extensive biochemical implications for the integrity of the genome. I...
Cellular DNA is constantly challenged by damage-inducing factors derived from exogenous or endogenou...
By some estimates, a eukaryotic cell must repair up to 10,000 DNA lesions per cell cycle to countera...
In eukaryotes, genomic DNA is tightly compacted into a protein-DNA complex known as chromatin. This ...
Chromatin has a complex, dynamic architecture in the interphase nucleus, which regulates the accessi...
Inheritance and maintenance of the DNA sequence and its organization into chromatin are central for ...
International audienceChromosome organization and chromatin mobility are central to DNA metabolism. ...
DNA double-strand breaks (DSBs) can efficiently kill cancer cells, but they can also produce unwante...
The dynamics organization of the nuclear genome is essential for many biological processes and is of...
During DNA replication, transcription and DNA repair in eukaryotes, the cellular machineries perform...
Understanding how DNA repair processes occur in vivo when access to DNA is hindered by chromatin str...
Chromatin is organized and segmented into a landscape of domains that serve multiple purposes. In co...
International audienceThe inability to repair damaged DNA severely compromises the integrity of any ...
International audienceThe primary functions of the eukaryotic nucleus as a site for the storage, ret...
In eukaryotic cells, the inheritance of both the DNA sequence and its organization into chromatin is...
The presence of DNA breaks has extensive biochemical implications for the integrity of the genome. I...
Cellular DNA is constantly challenged by damage-inducing factors derived from exogenous or endogenou...
By some estimates, a eukaryotic cell must repair up to 10,000 DNA lesions per cell cycle to countera...
In eukaryotes, genomic DNA is tightly compacted into a protein-DNA complex known as chromatin. This ...
Chromatin has a complex, dynamic architecture in the interphase nucleus, which regulates the accessi...
Inheritance and maintenance of the DNA sequence and its organization into chromatin are central for ...
International audienceChromosome organization and chromatin mobility are central to DNA metabolism. ...
DNA double-strand breaks (DSBs) can efficiently kill cancer cells, but they can also produce unwante...
The dynamics organization of the nuclear genome is essential for many biological processes and is of...
During DNA replication, transcription and DNA repair in eukaryotes, the cellular machineries perform...
Understanding how DNA repair processes occur in vivo when access to DNA is hindered by chromatin str...