Add to ORKGSignificant portions of the eukaryotic genome are heterochromatic, made up largely of repetitious sequences and possessing a distinctive chromatin structure associated with gene silencing. New insights into the form of packaging, the associated histone modifications, and the associated nonhistone chromosomal proteins of heterochromatin have suggested a mechanism for providing an epigenetic mark that allows this distinctive chromatin structure to be maintained following replication and to spread within a given domain
In eukaryotes, the two states of chromatin were first distinguished cytologically according to their...
Chromatin is organized into distinct functional domains. During mitotic cell division, both genetic ...
Twenty five years ago it was proposed that conserved components of constitutive heterochromatin asse...
Significant portions of the eukaryotic genome are heterochromatic, made up largely of repetitious se...
We have recently learned more about the biochemistry of heterochromatin and about how heterochromati...
AbstractRecent results from diverse organisms point to a self-reinforcing network of interactions am...
Eukaryotic genomes are packaged in two general varieties of chromatin: gene-rich euchromatin and gen...
portrayed as ‘silent chromatin’. In the past, studies of heterochromatic genes were limited to a few...
Eukaryotic genomes are packaged in two basic forms, euchromatin and heterochromatin. We have examine...
The relatively large genomes of eukaryotic cells must be organized and compacted within the nucleus ...
Eukaryotic chromatin can be divided into two main types: euchromatin with high levels of transcripti...
In eukaryotic cells, genomic DNA is packaged with histones to form chromatin. While euchromatin is f...
International audienceHeterochromatic domains, which are enriched in repetitive sequences and packag...
Constitutive heterochromatin represents a significant portion of eukaryotic genomes, but its functi...
Successful heterochromatin formation is critical for genome stability in eukaryotes, both to maintai...
In eukaryotes, the two states of chromatin were first distinguished cytologically according to their...
Chromatin is organized into distinct functional domains. During mitotic cell division, both genetic ...
Twenty five years ago it was proposed that conserved components of constitutive heterochromatin asse...
Significant portions of the eukaryotic genome are heterochromatic, made up largely of repetitious se...
We have recently learned more about the biochemistry of heterochromatin and about how heterochromati...
AbstractRecent results from diverse organisms point to a self-reinforcing network of interactions am...
Eukaryotic genomes are packaged in two general varieties of chromatin: gene-rich euchromatin and gen...
portrayed as ‘silent chromatin’. In the past, studies of heterochromatic genes were limited to a few...
Eukaryotic genomes are packaged in two basic forms, euchromatin and heterochromatin. We have examine...
The relatively large genomes of eukaryotic cells must be organized and compacted within the nucleus ...
Eukaryotic chromatin can be divided into two main types: euchromatin with high levels of transcripti...
In eukaryotic cells, genomic DNA is packaged with histones to form chromatin. While euchromatin is f...
International audienceHeterochromatic domains, which are enriched in repetitive sequences and packag...
Constitutive heterochromatin represents a significant portion of eukaryotic genomes, but its functi...
Successful heterochromatin formation is critical for genome stability in eukaryotes, both to maintai...
In eukaryotes, the two states of chromatin were first distinguished cytologically according to their...
Chromatin is organized into distinct functional domains. During mitotic cell division, both genetic ...
Twenty five years ago it was proposed that conserved components of constitutive heterochromatin asse...