peer reviewedOrgans have to develop at precisely determined sites to ensure functionality of the whole organism. Organogenesis is typically regulated by a series of interactions between morphologically distinct tissues. The developing tooth of the mouse is an excellent model to study these processes and we are beginning to understand the networks regulating reciprocal tissue interactions at the molecular level. Synergistic and antagonistic effects of signaling molecules including FGFs and BMPs are recursively used to induce localized responses in the adjacent tissue layer (mesenchyme or epithelium). However, at different phases of odontogenesis these secreted growth factors have distinct effects and at the same time they are regulated by di...
During embryogenesis, ectodermal stem cells adopt different fates and form diverse ectodermal organs...
AbstractDevelopmental abnormalities of craniofacial structures and teeth often occur sporadically an...
Epithelial stem cells reside in specific niches that regulate their self-renewal and differentiation...
Many vertebrate organs form via the sequential, reciprocal exchange of signaling molecules between j...
Teeth are vertebrate organs that arise from complex and progressive interactions between an ectoderm...
AbstractVertebrate organogenesis is initiated at sites that are often morphologically indistinguisha...
SummaryMesenchymal condensation is critical for organogenesis, yet little is known about how this pr...
peer reviewedVertebrate organogenesis is initiated at sites that are often morphologically indisting...
AbstractEpithelial–mesenchymal interactions govern the development of epidermal organs such as teeth...
Mammalian teeth are formed by a series of reciprocal epithelial−mesenchymal interactions during the ...
peer reviewedPax genes encode a family of transcription factors that play key roles during embryogen...
Tooth development is regulated by reciprocal interactions between epithelial and mesenchymal cells. ...
6 Abstract The development of the mouse tooth primordium is an important model for studying odontoge...
Odontogenesis is a complex embryonic process originated by the interaction between two main embryoni...
AbstractTooth development is initiated by signals from the oral ectoderm which induce gene expressio...
During embryogenesis, ectodermal stem cells adopt different fates and form diverse ectodermal organs...
AbstractDevelopmental abnormalities of craniofacial structures and teeth often occur sporadically an...
Epithelial stem cells reside in specific niches that regulate their self-renewal and differentiation...
Many vertebrate organs form via the sequential, reciprocal exchange of signaling molecules between j...
Teeth are vertebrate organs that arise from complex and progressive interactions between an ectoderm...
AbstractVertebrate organogenesis is initiated at sites that are often morphologically indistinguisha...
SummaryMesenchymal condensation is critical for organogenesis, yet little is known about how this pr...
peer reviewedVertebrate organogenesis is initiated at sites that are often morphologically indisting...
AbstractEpithelial–mesenchymal interactions govern the development of epidermal organs such as teeth...
Mammalian teeth are formed by a series of reciprocal epithelial−mesenchymal interactions during the ...
peer reviewedPax genes encode a family of transcription factors that play key roles during embryogen...
Tooth development is regulated by reciprocal interactions between epithelial and mesenchymal cells. ...
6 Abstract The development of the mouse tooth primordium is an important model for studying odontoge...
Odontogenesis is a complex embryonic process originated by the interaction between two main embryoni...
AbstractTooth development is initiated by signals from the oral ectoderm which induce gene expressio...
During embryogenesis, ectodermal stem cells adopt different fates and form diverse ectodermal organs...
AbstractDevelopmental abnormalities of craniofacial structures and teeth often occur sporadically an...
Epithelial stem cells reside in specific niches that regulate their self-renewal and differentiation...