Repair of UV-induced DNA damage requires chromatin remodeling. How repair is initiated in chromatin remains largely unknown. We recently demonstrated that global genome–nucleotide excision repair (GG-NER) in chromatin is organized into domains in relation to open reading frames. Here, we define these domains, identifying the genomic locations from which repair is initiated. By examining DNA damage–induced changes in the linear structure of nucleosomes at these sites, we demonstrate how chromatin remodeling is initiated during GG-NER. In undamaged cells, we show that the GG-NER complex occupies chromatin, establishing the nucleosome structure at these genomic locations, which we refer to as GG-NER complex binding sites (GCBSs). We demonstrat...
Cells employ global genome nucleotide excision repair (GGR) to eliminate a broad spectrum of DNA les...
Nucleotide excision repair is the sole mechanism for removing bulky adducts from the human genome, i...
DNA damage occurs within the chromatin environment, which ultimately participates in regulating DNA ...
Repair of UV-induced DNA damage requires chromatin remodeling. How repair is initiated in chromatin ...
The rates at which lesions are removed by DNA repair can vary widely throughout the genome, with imp...
Maintaining genome stability is essential for life. Since DNA is constantly exposed to the deleterio...
The rates at which lesions are removed by DNA repair can vary widely throughout the genome, with imp...
Global genome nucleotide excision repair (GG-NER) eliminates a broad spectrum of DNA lesions from ge...
Global genome nucleotide excision repair removes DNA damage from transcriptionally silent regions of...
In an earlier review of our understanding of the mechanism of nucleotide excision repair (NER) we ex...
Here we review our development of, and results with, high resolution studies on global genome nucleo...
AbstractDNA repair in the eukaryotic cell disrupts local chromatin organization. To investigate whet...
It has been a long-standing question how DNA damage repair proceeds in a nuclear environment where D...
Cells employ global genome nucleotide excision repair (GGR) to eliminate a broad spectrum of DNA les...
Nucleotide excision repair is the sole mechanism for removing bulky adducts from the human genome, i...
DNA damage occurs within the chromatin environment, which ultimately participates in regulating DNA ...
Repair of UV-induced DNA damage requires chromatin remodeling. How repair is initiated in chromatin ...
The rates at which lesions are removed by DNA repair can vary widely throughout the genome, with imp...
Maintaining genome stability is essential for life. Since DNA is constantly exposed to the deleterio...
The rates at which lesions are removed by DNA repair can vary widely throughout the genome, with imp...
Global genome nucleotide excision repair (GG-NER) eliminates a broad spectrum of DNA lesions from ge...
Global genome nucleotide excision repair removes DNA damage from transcriptionally silent regions of...
In an earlier review of our understanding of the mechanism of nucleotide excision repair (NER) we ex...
Here we review our development of, and results with, high resolution studies on global genome nucleo...
AbstractDNA repair in the eukaryotic cell disrupts local chromatin organization. To investigate whet...
It has been a long-standing question how DNA damage repair proceeds in a nuclear environment where D...
Cells employ global genome nucleotide excision repair (GGR) to eliminate a broad spectrum of DNA les...
Nucleotide excision repair is the sole mechanism for removing bulky adducts from the human genome, i...
DNA damage occurs within the chromatin environment, which ultimately participates in regulating DNA ...