The Drosophila Dscams are immunoglobulin superfamily members produced from a single gene that is diversified by alternative splicing to produce a family of cell-surface proteins with over 19,000 different ectodomain isoforms. Dscams are critical for neuronal wiring, and mounting evidence suggests that they play a key role in self-avoidance between sister branches from neurons, which depends on homophilic self-recognition by Dscams. Two recent papers shed new light on Dscam recognition: first by showing that the vast majority of Dscam isoforms mediate specific homophilic binding and second by revealing the essence of the molecular basis of homophilic recognition by Dscams through high-resolution structural studies
SummaryHow a finite number of genes specify a seemingly infinite number of neuronal connections is a...
Cell recognition requires interactions through molecules located on cell surface. The insect homolog...
SummaryThe assembly of neurons into functional circuits requires a multitude of cellular recognition...
The Drosophila Dscams are immunoglobulin superfamily members produced from a single gene that is div...
SummaryDscam encodes a family of cell surface proteins required for establishing neural circuits in ...
SummaryDendrites distinguish between sister branches and those of other cells. Self-recognition can ...
From hunting preys, avoiding predators, to more complex social interactions, our behaviors depend on...
SummaryDscam encodes a family of cell surface proteins required for establishing neural circuits in ...
The Dscam family of immunoglobulin cell surface proteins mediates recognition events between neurons...
SummaryDscam1 potentially encodes 19,008 ectodomains of a cell recognition molecule of the immunoglo...
AbstractFor decades, it has been suggested that complex neural wiring might be specified by extensiv...
SummaryAlternative splicing of the Drosophila gene Dscam results in up to 38,016 different receptor ...
SummaryThe Drosophila Dscam1 gene encodes a vast number of cell recognition molecules through altern...
In the fruit fly Drosophila the gene encoding the cell adhesion molecule Dscam generates alternative...
SummaryDendrites distinguish between sister branches and those of other cells. Self-recognition can ...
SummaryHow a finite number of genes specify a seemingly infinite number of neuronal connections is a...
Cell recognition requires interactions through molecules located on cell surface. The insect homolog...
SummaryThe assembly of neurons into functional circuits requires a multitude of cellular recognition...
The Drosophila Dscams are immunoglobulin superfamily members produced from a single gene that is div...
SummaryDscam encodes a family of cell surface proteins required for establishing neural circuits in ...
SummaryDendrites distinguish between sister branches and those of other cells. Self-recognition can ...
From hunting preys, avoiding predators, to more complex social interactions, our behaviors depend on...
SummaryDscam encodes a family of cell surface proteins required for establishing neural circuits in ...
The Dscam family of immunoglobulin cell surface proteins mediates recognition events between neurons...
SummaryDscam1 potentially encodes 19,008 ectodomains of a cell recognition molecule of the immunoglo...
AbstractFor decades, it has been suggested that complex neural wiring might be specified by extensiv...
SummaryAlternative splicing of the Drosophila gene Dscam results in up to 38,016 different receptor ...
SummaryThe Drosophila Dscam1 gene encodes a vast number of cell recognition molecules through altern...
In the fruit fly Drosophila the gene encoding the cell adhesion molecule Dscam generates alternative...
SummaryDendrites distinguish between sister branches and those of other cells. Self-recognition can ...
SummaryHow a finite number of genes specify a seemingly infinite number of neuronal connections is a...
Cell recognition requires interactions through molecules located on cell surface. The insect homolog...
SummaryThe assembly of neurons into functional circuits requires a multitude of cellular recognition...