SummaryWe identify the leucine-rich repeat transmembrane protein LRRTM2 as a key regulator of excitatory synapse development and function. LRRTM2 localizes to excitatory synapses in transfected hippocampal neurons, and shRNA-mediated knockdown of LRRTM2 leads to a decrease in excitatory synapses without affecting inhibitory synapses. LRRTM2 interacts with PSD-95 and regulates surface expression of AMPA receptors, and lentivirus-mediated knockdown of LRRTM2 in vivo decreases the strength of evoked excitatory synaptic currents. Structure-function studies indicate that LRRTM2 induces presynaptic differentiation via the extracellular LRR domain. We identify Neurexin1 as a receptor for LRRTM2 based on affinity chromatography. LRRTM2 binds to bot...
LRRTMs are postsynaptic cell adhesion proteins that have region-restricted expression in the brain. ...
SummaryLeucine-rich repeat transmembrane proteins (LRRTMs) are synaptic cell adhesion molecules that...
SummaryDelineating the molecular basis of synapse development is crucial for understanding brain fun...
SummaryWe identify the leucine-rich repeat transmembrane protein LRRTM2 as a key regulator of excita...
Summary We identify the leucine-rich repeat transmembrane protein LRRTM2 as a key regulator of excit...
SummaryRecently, leucine-rich repeat transmembrane proteins (LRRTMs) were found to be synaptic cell-...
SummaryRecently, leucine-rich repeat transmembrane proteins (LRRTMs) were found to be synaptic cell-...
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...
Les synapses constituent le principal site de communication entre les neurones du système nerveux ce...
Synapses are the main site of communication between neurons in the central nervous system. These spe...
SummarySelective synapse development determines how complex neuronal networks in the brain are forme...
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...
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. ...
SummaryLeucine-rich repeat transmembrane proteins (LRRTMs) are synaptic cell adhesion molecules that...
SummaryDelineating the molecular basis of synapse development is crucial for understanding brain fun...
SummaryWe identify the leucine-rich repeat transmembrane protein LRRTM2 as a key regulator of excita...
Summary We identify the leucine-rich repeat transmembrane protein LRRTM2 as a key regulator of excit...
SummaryRecently, leucine-rich repeat transmembrane proteins (LRRTMs) were found to be synaptic cell-...
SummaryRecently, leucine-rich repeat transmembrane proteins (LRRTMs) were found to be synaptic cell-...
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...
Les synapses constituent le principal site de communication entre les neurones du système nerveux ce...
Synapses are the main site of communication between neurons in the central nervous system. These spe...
SummarySelective synapse development determines how complex neuronal networks in the brain are forme...
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...
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. ...
SummaryLeucine-rich repeat transmembrane proteins (LRRTMs) are synaptic cell adhesion molecules that...
SummaryDelineating the molecular basis of synapse development is crucial for understanding brain fun...