Ramón Reig

Preferential vulnerability of cortical GABAergic interneurons to Nalcn deficiency

This study shows that NALCN deficiency preferentially affects GABAergic interneurons, reducing their intrinsic excitability and impairing contextual adaptation and spatial memory in mice.

Global and local nature of cortical slow waves

This study uses computational models to investigate how local and global network properties shape cortical slow wave activity and propagation.

Callosal inputs generate side-invariant receptive fields in the barrel cortex

The paper investigates how callosal inputs contribute to ipsilateral tactile signaling in the barrel cortex, finding that some neurons respond similarly to contralateral and ipsilateral whisker stimulation.

Dopamine enhances multisensory responses in the dorsomedial striatum

This study shows dopamine enhances bimodal sensory responses in direct pathway MSNs of the dorsomedial striatum through visual response acceleration.

Cholecystokinin exerts a major control on corticostriatal synapse and motor behavior

This study investigates the role of cholecystokinin (CCK) and its receptor CCK2R in corticostriatal synaptic transmission and motor behavior, showing that CCK2R is essential for synaptic plasticity and motor function in male rats.

Medium spiny neurons activity reveals the discrete segregation of mouse dorsal striatum

The paper identifies two non-overlapping functional circuits in the mouse dorsal striatum, separated by a sharp boundary, revealing distinct neuronal properties and connectivity patterns.

Modulation of cortical slow oscillatory rhythm by GABAB receptors: an experimental and computational study

This study investigates how GABAB receptor modulation affects slow oscillatory rhythms in cortical networks through combined experimental and computational approaches.

Direct Pathway Neurons in Mouse Dorsolateral Striatum In Vivo Receive Stronger Synaptic Input than Indirect Pathway Neurons

The paper compares synaptic input strength between direct and indirect pathway neurons in the striatum of mice, finding direct pathway neurons receive stronger input, which is lost in dopamine-depleted mice.