In this issue of Genes & Development, Siebert and colleagues (pp. 1052–1062) define a ligand–receptor system that controls motor axon guidance and target recognition in the Drosophila embryo. The beaten path (beat) and sidestep (side) genes were known to be important regulators of motor axon guidance. Siebert and colleagues now show that Beat and Side are cell surface proteins that physically interact with each other, and that Beat-expressing motor axon growth cones reach their targets via recognition of Side-expressing pathways
SummaryThe secreted signal Slit and its three receptors, Robo1–3, regulate axon guidance in the Dros...
AbstractDLAR is a receptor-like, transmembrane protein-tyrosine phosphatase in Drosophila that is ex...
AbstractThe molecular mechanisms controlling the ability of motor axons to recognize their appropria...
AbstractAt specific choice points in the periphery, subsets of motor axons defasciculate from other ...
AbstractRecent results have revealed for the first time that receptor-like protein tyrosine phosphat...
AbstractIn the Drosophila embryo, at specific choice points along the major motor nerves, subsets of...
AbstractThe proper pathfinding and target recognition of an axon requires the precisely choreographe...
SummaryIn Drosophila embryos and larvae, a small number of identified motor neurons innervate body w...
[EN] An 'interactome' screen of all Drosophila cell-surface and secreted proteins containing immunog...
AbstractAxon pathfinding and target choice are governed by cell type–specific responses to external ...
An essential component of nervous system development entails the projection of axons from neuronal c...
An ‘interactome’ screen of all Drosophila cell-surface and secreted proteins containing immunoglobul...
How do growing axons in the central nervous system navigate through the dense jungle of cells and pr...
The neural receptor tyrosine phosphatases DPTP69D, DPTP99A and DLAR are involved in motor axon guid...
SummaryCombinations of transcription factors (TFs) instruct precise wiring patterns in the developin...
SummaryThe secreted signal Slit and its three receptors, Robo1–3, regulate axon guidance in the Dros...
AbstractDLAR is a receptor-like, transmembrane protein-tyrosine phosphatase in Drosophila that is ex...
AbstractThe molecular mechanisms controlling the ability of motor axons to recognize their appropria...
AbstractAt specific choice points in the periphery, subsets of motor axons defasciculate from other ...
AbstractRecent results have revealed for the first time that receptor-like protein tyrosine phosphat...
AbstractIn the Drosophila embryo, at specific choice points along the major motor nerves, subsets of...
AbstractThe proper pathfinding and target recognition of an axon requires the precisely choreographe...
SummaryIn Drosophila embryos and larvae, a small number of identified motor neurons innervate body w...
[EN] An 'interactome' screen of all Drosophila cell-surface and secreted proteins containing immunog...
AbstractAxon pathfinding and target choice are governed by cell type–specific responses to external ...
An essential component of nervous system development entails the projection of axons from neuronal c...
An ‘interactome’ screen of all Drosophila cell-surface and secreted proteins containing immunoglobul...
How do growing axons in the central nervous system navigate through the dense jungle of cells and pr...
The neural receptor tyrosine phosphatases DPTP69D, DPTP99A and DLAR are involved in motor axon guid...
SummaryCombinations of transcription factors (TFs) instruct precise wiring patterns in the developin...
SummaryThe secreted signal Slit and its three receptors, Robo1–3, regulate axon guidance in the Dros...
AbstractDLAR is a receptor-like, transmembrane protein-tyrosine phosphatase in Drosophila that is ex...
AbstractThe molecular mechanisms controlling the ability of motor axons to recognize their appropria...