Early in development, placental and marsupial mammals harbouring at least two X chromosomes per nucleus are faced with a choice that affects the rest of their lives: which of those X chromosomes to transcriptionally inactivate. This choice underlies phenotypical diversity in the composition of tissues and organs and in their response to the environment, and can determine whether an individual will be healthy or affected by an X-linked disease. Here, we review our current understanding of the process of choice during X-chromosome inactivation and its implications, focusing on the strategies evolved by different mammalian lineages and on the known and unknown molecular mechanisms and players involved
Imprinted inactivation of the paternal X chromosome in marsupials is the primordial mechanism of dos...
In eutherian mammals, dosage compensation between XX females and XY males is achieved by the transcr...
Dosage compensation for X chromosome-linked genes is achieved in female mammals by the transcription...
Early in development, placental and marsupial mammals harbouring at least two X chromosomes per nucl...
Early in development, placental and marsupial mammals harbouring at least two X chromosomes per nucl...
The mammalian X chromosome is unique in its hemizygous expression in somatic tissues. In males,...
In female mammals, one of the two X chromosomes present is inactivated during early development. In ...
textabstractPlacental mammalian female cells have two X chromosomes. One of these chromosomes is ran...
Early in the development of female mammals, one of the two X chromosomes is silenced in half of cell...
AbstractIn female mammals a “random choice” mechanism decides which of the two X chromosomes will be...
X chromosome inactivation (XCI) reduces the number of actively transcribed X chromosomes to one per ...
BACKGROUND: X chromosome inactivation is the transcriptional silencing of one X chromosome in the so...
SummaryFemale mammalian cells achieve dosage compensation of X-encoded genes by X chromosome inactiv...
Female mammalian cells achieve dosage compensation of X-encoded genes by X chromosome inactivation (...
Early in the development of female mammals, one of the two X chromosomes is silenced in half of cell...
Imprinted inactivation of the paternal X chromosome in marsupials is the primordial mechanism of dos...
In eutherian mammals, dosage compensation between XX females and XY males is achieved by the transcr...
Dosage compensation for X chromosome-linked genes is achieved in female mammals by the transcription...
Early in development, placental and marsupial mammals harbouring at least two X chromosomes per nucl...
Early in development, placental and marsupial mammals harbouring at least two X chromosomes per nucl...
The mammalian X chromosome is unique in its hemizygous expression in somatic tissues. In males,...
In female mammals, one of the two X chromosomes present is inactivated during early development. In ...
textabstractPlacental mammalian female cells have two X chromosomes. One of these chromosomes is ran...
Early in the development of female mammals, one of the two X chromosomes is silenced in half of cell...
AbstractIn female mammals a “random choice” mechanism decides which of the two X chromosomes will be...
X chromosome inactivation (XCI) reduces the number of actively transcribed X chromosomes to one per ...
BACKGROUND: X chromosome inactivation is the transcriptional silencing of one X chromosome in the so...
SummaryFemale mammalian cells achieve dosage compensation of X-encoded genes by X chromosome inactiv...
Female mammalian cells achieve dosage compensation of X-encoded genes by X chromosome inactivation (...
Early in the development of female mammals, one of the two X chromosomes is silenced in half of cell...
Imprinted inactivation of the paternal X chromosome in marsupials is the primordial mechanism of dos...
In eutherian mammals, dosage compensation between XX females and XY males is achieved by the transcr...
Dosage compensation for X chromosome-linked genes is achieved in female mammals by the transcription...