After fertilization, the embryonic genome is inactive until transcription is initiated during the maternal-to-zygotic transition. How the onset of transcription is regulated in a precisely timed manner, however, is a long standing question in biology. Several mechanisms have been shown to contribute to the temporal regulation of genome activation but none of them can fully explain the general absence of transcription as well the gene specific onset that follows. Here we review the work that has been done toward elucidating the mechanisms underlying the temporal regulation of transcription in embryos
The striking correlation between genome topology and transcriptional activity has for decades made r...
The striking correlation between genome topology and transcriptional activity has for decades made r...
The gene products that drive early development are critical for setting up developmental trajectorie...
After fertilization, the genome of the totipotent embryo is transcriptionally inactive and then init...
Most animal embryos begin zygotic transcription only after a considerable delay following fertilizat...
Successful development of a fertilized egg beyond early cleavage divisions requires the de novo init...
The fertilized frog egg contains all the materials needed to initiate development of a new organism,...
In animals, the early embryo is mostly transcriptionally silent and development is fueled by materna...
During the maternal-to-zygotic transition, a developing embryo integrates post-transcriptional regul...
In early metazoan development, the zygotic genome is not immediately transcribed; instead, factors e...
During the maternal-to-zygotic transition, a developing embryo integrates post-transcriptional regul...
Contemplating how a single cell can turn into the trillions of specialized cells that make a human b...
In plants and animals, embryo development becomes ultimately controlled by zygotic genes, but the ti...
The fusion of two transcriptionally silent gametes, egg and sperm, generates a totipotent zygote tha...
Maternal gene products drive early development when the newly formed embryo is transcriptionally ina...
The striking correlation between genome topology and transcriptional activity has for decades made r...
The striking correlation between genome topology and transcriptional activity has for decades made r...
The gene products that drive early development are critical for setting up developmental trajectorie...
After fertilization, the genome of the totipotent embryo is transcriptionally inactive and then init...
Most animal embryos begin zygotic transcription only after a considerable delay following fertilizat...
Successful development of a fertilized egg beyond early cleavage divisions requires the de novo init...
The fertilized frog egg contains all the materials needed to initiate development of a new organism,...
In animals, the early embryo is mostly transcriptionally silent and development is fueled by materna...
During the maternal-to-zygotic transition, a developing embryo integrates post-transcriptional regul...
In early metazoan development, the zygotic genome is not immediately transcribed; instead, factors e...
During the maternal-to-zygotic transition, a developing embryo integrates post-transcriptional regul...
Contemplating how a single cell can turn into the trillions of specialized cells that make a human b...
In plants and animals, embryo development becomes ultimately controlled by zygotic genes, but the ti...
The fusion of two transcriptionally silent gametes, egg and sperm, generates a totipotent zygote tha...
Maternal gene products drive early development when the newly formed embryo is transcriptionally ina...
The striking correlation between genome topology and transcriptional activity has for decades made r...
The striking correlation between genome topology and transcriptional activity has for decades made r...
The gene products that drive early development are critical for setting up developmental trajectorie...