SummarySelective synapse development determines how complex neuronal networks in the brain are formed. Complexes of postsynaptic neuroligins and LRRTMs with presynaptic neurexins contribute widely to excitatory synapse development, and mutations in these gene families increase the risk of developing psychiatric disorders. We find that LRRTM4 has distinct presynaptic binding partners, heparan sulfate proteoglycans (HSPGs). HSPGs are required to mediate the synaptogenic activity of LRRTM4. LRRTM4 shows highly selective expression in the brain. Within the hippocampus, we detected LRRTM4 specifically at excitatory postsynaptic sites on dentate gyrus granule cells. LRRTM4−/− dentate gyrus granule cells, but not CA1 pyramidal cells, exhibit reduc...
SummaryAn important organizing feature of the CNS is that individual neurons receive input from many...
SummaryLeucine-rich repeat transmembrane proteins (LRRTMs) are synaptic cell adhesion molecules that...
In the brain, many types of interneurons make functionally diverse inhibitory synapses onto principa...
The leucine rich repeat transmembrane neuronal (LRRTM) proteins are a family of four synaptogenic ce...
The leucine rich repeat transmembrane neuronal (LRRTM) proteins are a family of four synaptogenic ce...
Synaptic adhesion molecules control neuronal synapse development. In this issue of Neuron, Siddiqui ...
SummaryDelineating the molecular basis of synapse development is crucial for understanding brain fun...
SummaryLeucine-rich repeat (LRR) proteins have recently been identified as important regulators of s...
SummaryWe identify the leucine-rich repeat transmembrane protein LRRTM2 as a key regulator of excita...
The four members of the LRRTM family (LRRTM1-4) are postsynaptic adhesion molecules essential for ex...
The four members of the LRRTM family (LRRTM1-4) are postsynaptic adhesion molecules essential for ex...
LRRTMs are postsynaptic cell adhesion proteins that have region-restricted expression in the brain. ...
The four members of the LRRTM family (LRRTM1-4) are postsynaptic adhesion molecules essential for ex...
SummaryRecently, leucine-rich repeat transmembrane proteins (LRRTMs) were found to be synaptic cell-...
A delineation of the molecular basis of synapse development is crucial for understanding brain funct...
SummaryAn important organizing feature of the CNS is that individual neurons receive input from many...
SummaryLeucine-rich repeat transmembrane proteins (LRRTMs) are synaptic cell adhesion molecules that...
In the brain, many types of interneurons make functionally diverse inhibitory synapses onto principa...
The leucine rich repeat transmembrane neuronal (LRRTM) proteins are a family of four synaptogenic ce...
The leucine rich repeat transmembrane neuronal (LRRTM) proteins are a family of four synaptogenic ce...
Synaptic adhesion molecules control neuronal synapse development. In this issue of Neuron, Siddiqui ...
SummaryDelineating the molecular basis of synapse development is crucial for understanding brain fun...
SummaryLeucine-rich repeat (LRR) proteins have recently been identified as important regulators of s...
SummaryWe identify the leucine-rich repeat transmembrane protein LRRTM2 as a key regulator of excita...
The four members of the LRRTM family (LRRTM1-4) are postsynaptic adhesion molecules essential for ex...
The four members of the LRRTM family (LRRTM1-4) are postsynaptic adhesion molecules essential for ex...
LRRTMs are postsynaptic cell adhesion proteins that have region-restricted expression in the brain. ...
The four members of the LRRTM family (LRRTM1-4) are postsynaptic adhesion molecules essential for ex...
SummaryRecently, leucine-rich repeat transmembrane proteins (LRRTMs) were found to be synaptic cell-...
A delineation of the molecular basis of synapse development is crucial for understanding brain funct...
SummaryAn important organizing feature of the CNS is that individual neurons receive input from many...
SummaryLeucine-rich repeat transmembrane proteins (LRRTMs) are synaptic cell adhesion molecules that...
In the brain, many types of interneurons make functionally diverse inhibitory synapses onto principa...