Developmental processes have to be robust but also flexible enough to respond to genetic and environmental variations. Different mechanisms have been described to explain the apparent antagonistic nature of developmental robustness and plasticity. Here, we present a “self-sufficient” molecular model to explain the development of a particular flight organ that is under the control of the Hox gene Ultrabithorax (Ubx) in the fruit fly Drosophila melanogaster. Our model is based on a candidate RNAi screen and additional genetic analyses that all converge to an autonomous and cofactor-independent mode of action for Ubx. We postulate that this self-sufficient molecular mechanism is possible due to an unusually high expression level of the Hox pro...
Linking changes in amino acid sequences to the evolution of transcription regulatory domains is ofte...
Suppression of wing fate and specification of haltere fate in Drosophila by the homeotic gene Ultrab...
SummaryHox genes control the anterior-posterior patterning of most metazoan embryos. Their sequentia...
Arthropods and vertebrates are constructed of many serially homologous structures whose individual p...
In the fruitfly Drosophila melanogaster, the differential development of wing and haltere is depende...
Although the specific form of an organ is frequently important for its function, the mechanisms unde...
AbstractWe still have little idea how the differential expression of one ‘master’ gene can control t...
Mutations in the Ultrabithorax (Ubx) gene cause homeotic transformation of the normally two-winged D...
Abstract Hox genes encode Homeodomain-containing transcription factors, which specify segmental iden...
During evolution, animais have developed an astonishing morphological diversity, allowing them to ad...
Although most metazoan genes undergo alternative splicing, the functional relevance of the majority ...
AbstractHox proteins have been proposed to act at multiple levels within regulatory hierarchies and ...
AbstractSuppression of wing fate and specification of haltere fate in Drosophila by the homeotic gen...
Hox genes encode a family of transcription factors that are key developmental regulators with a high...
Specification of cell identity and the proper functioning of a mature cell depend on precise regulat...
Linking changes in amino acid sequences to the evolution of transcription regulatory domains is ofte...
Suppression of wing fate and specification of haltere fate in Drosophila by the homeotic gene Ultrab...
SummaryHox genes control the anterior-posterior patterning of most metazoan embryos. Their sequentia...
Arthropods and vertebrates are constructed of many serially homologous structures whose individual p...
In the fruitfly Drosophila melanogaster, the differential development of wing and haltere is depende...
Although the specific form of an organ is frequently important for its function, the mechanisms unde...
AbstractWe still have little idea how the differential expression of one ‘master’ gene can control t...
Mutations in the Ultrabithorax (Ubx) gene cause homeotic transformation of the normally two-winged D...
Abstract Hox genes encode Homeodomain-containing transcription factors, which specify segmental iden...
During evolution, animais have developed an astonishing morphological diversity, allowing them to ad...
Although most metazoan genes undergo alternative splicing, the functional relevance of the majority ...
AbstractHox proteins have been proposed to act at multiple levels within regulatory hierarchies and ...
AbstractSuppression of wing fate and specification of haltere fate in Drosophila by the homeotic gen...
Hox genes encode a family of transcription factors that are key developmental regulators with a high...
Specification of cell identity and the proper functioning of a mature cell depend on precise regulat...
Linking changes in amino acid sequences to the evolution of transcription regulatory domains is ofte...
Suppression of wing fate and specification of haltere fate in Drosophila by the homeotic gene Ultrab...
SummaryHox genes control the anterior-posterior patterning of most metazoan embryos. Their sequentia...