Long-term memory has been associated with morphological changes in the brain, which in turn tightly correlate with changes in synaptic efficacy. Such plasticity is proposed to rely on dendritic spines as a neuronal canvas on which these changes can occur. Given the key role of actin cytoskeleton dynamics in spine morphology, major regulating factors of this process such as Cofilin 1 (Cfl1) and LIM kinase (LIMK), an inhibitor of Cfl1 activity, are prime molecular targets that may regulate dendritic plasticity. Using a contextual fear conditioning paradigm in mice, we found that pharmacological induction of depolymerization of actin filaments through the inhibition of LIMK causes an impairment in memory reconsolidation, as well as in memory c...
Dendritic spines are the post-synaptic sites of most excitatory synapses in the brain, and changes i...
Abstract Accumulating evidence indicates that the actin regulator cofilin is overactivated in Alzhei...
The structural plasticity of synaptic terminals contributes to normal nervous system function but al...
Long-lasting changes in dendritic spines provide a physical correlate for memory formation and persi...
AbstractIn vitro studies indicate a role for the LIM kinase family in the regulation of cofilin phos...
Learning and memory require structural and functional modifications of synaptic connections, and syn...
Synaptic plasticity is known to be intrinsically linked to cytoskeletal remodelling. In a new study ...
The LIM-Kinase family of proteins (LIMK) plays an important role in actin dynamics through its regul...
The LIM-Kinase family of proteins (LIMK) plays an important role in actin dynamics through its regul...
AbstractLIM kinase 1 regulates actin filament dynamics through inhibition of ADF/cofilins. Surprisin...
AbstractIn vitro studies indicate a role for the LIM kinase family in the regulation of cofilin phos...
Evidence indicates that long-term memory formation involves alterations in synaptic efficacy produce...
Actin turnover in dendritic spines influences spine development, morphology, and plasticity, with fu...
Synaptic plasticity is known to be intrinsically linked to cytoskeletal remodelling. In a new study ...
AbstractLIM kinase 1 regulates actin filament dynamics through inhibition of ADF/cofilins. Surprisin...
Dendritic spines are the post-synaptic sites of most excitatory synapses in the brain, and changes i...
Abstract Accumulating evidence indicates that the actin regulator cofilin is overactivated in Alzhei...
The structural plasticity of synaptic terminals contributes to normal nervous system function but al...
Long-lasting changes in dendritic spines provide a physical correlate for memory formation and persi...
AbstractIn vitro studies indicate a role for the LIM kinase family in the regulation of cofilin phos...
Learning and memory require structural and functional modifications of synaptic connections, and syn...
Synaptic plasticity is known to be intrinsically linked to cytoskeletal remodelling. In a new study ...
The LIM-Kinase family of proteins (LIMK) plays an important role in actin dynamics through its regul...
The LIM-Kinase family of proteins (LIMK) plays an important role in actin dynamics through its regul...
AbstractLIM kinase 1 regulates actin filament dynamics through inhibition of ADF/cofilins. Surprisin...
AbstractIn vitro studies indicate a role for the LIM kinase family in the regulation of cofilin phos...
Evidence indicates that long-term memory formation involves alterations in synaptic efficacy produce...
Actin turnover in dendritic spines influences spine development, morphology, and plasticity, with fu...
Synaptic plasticity is known to be intrinsically linked to cytoskeletal remodelling. In a new study ...
AbstractLIM kinase 1 regulates actin filament dynamics through inhibition of ADF/cofilins. Surprisin...
Dendritic spines are the post-synaptic sites of most excitatory synapses in the brain, and changes i...
Abstract Accumulating evidence indicates that the actin regulator cofilin is overactivated in Alzhei...
The structural plasticity of synaptic terminals contributes to normal nervous system function but al...