AbstractThe eyeless, dachshund, and eyes absent genes encode conserved, nuclear proteins that are essential for eye development in Drosophila. Misexpression of eyeless or dachshund is also sufficient to induce the formation of ectopic compound eyes. Here we show that the dachshund and eyes absent genes act synergistically to induce ectopic retinal development and positively regulate the expression of each other. Moreover, we show that the Dachshund and Eyes Absent proteins can physically interact through conserved domains, suggesting a molecular basis for the genetic synergy observed and that a similar complex may function in mammals. We propose that a conserved regulatory network, rather than a linear hierarchy, controls retinal specificat...
Organ development is directed by selector gene networks. Eye development in the fruit fly Drosophila...
Proper organ patterning depends on a tight coordination between cell proliferation and differentiati...
AbstractThe determination of neuronal identity in Drosophila cells depends on the accurate expressio...
AbstractThe eyeless, dachshund, and eyes absent genes encode conserved, nuclear proteins that are es...
Abstractsine oculis(so) and eyes absent (eya) are required for Drosophila eye development and are fo...
AbstractThe retinal determination gene dachshund is distantly related to the family of Ski/Sno proto...
AbstractGenes involved in eye development are highly conserved between vertebrates and Drosophila. G...
Drosophila eye development is controlled by a conserved network of retinal determination (RD) genes....
AbstractThe Dachshund proteins are essential components of a regulatory network controlling cell fat...
AbstractThe early retinal genes dachshund (dac), eyes absent (eya) and sine oculis (so) are key regu...
AbstractDachshund (Dac) is a highly conserved nuclear protein that is distantly related to the Ski/S...
Abstracteyeless (ey) is a key regulator of the eye development pathway in Drosophila. Ectopic expres...
The complexity of the Drosophila compound eye is under the control of eight “master control” genes. ...
AbstractRetinal determination genes are sufficient to specify eyes in ectopic locations, raising the...
AbstractTheeyes absent(eya) gene plays an essential role in the events that lead to formation of the...
Organ development is directed by selector gene networks. Eye development in the fruit fly Drosophila...
Proper organ patterning depends on a tight coordination between cell proliferation and differentiati...
AbstractThe determination of neuronal identity in Drosophila cells depends on the accurate expressio...
AbstractThe eyeless, dachshund, and eyes absent genes encode conserved, nuclear proteins that are es...
Abstractsine oculis(so) and eyes absent (eya) are required for Drosophila eye development and are fo...
AbstractThe retinal determination gene dachshund is distantly related to the family of Ski/Sno proto...
AbstractGenes involved in eye development are highly conserved between vertebrates and Drosophila. G...
Drosophila eye development is controlled by a conserved network of retinal determination (RD) genes....
AbstractThe Dachshund proteins are essential components of a regulatory network controlling cell fat...
AbstractThe early retinal genes dachshund (dac), eyes absent (eya) and sine oculis (so) are key regu...
AbstractDachshund (Dac) is a highly conserved nuclear protein that is distantly related to the Ski/S...
Abstracteyeless (ey) is a key regulator of the eye development pathway in Drosophila. Ectopic expres...
The complexity of the Drosophila compound eye is under the control of eight “master control” genes. ...
AbstractRetinal determination genes are sufficient to specify eyes in ectopic locations, raising the...
AbstractTheeyes absent(eya) gene plays an essential role in the events that lead to formation of the...
Organ development is directed by selector gene networks. Eye development in the fruit fly Drosophila...
Proper organ patterning depends on a tight coordination between cell proliferation and differentiati...
AbstractThe determination of neuronal identity in Drosophila cells depends on the accurate expressio...