Susana González-Granero

This study shows that long-term human cerebral organoids replicate postnatal interneuron migration, revealing chain migration and genetic factors linked to neurodevelopmental disorders.

The paper identifies a novel ependymal cell type (E2) in the forebrain that senses cerebrospinal fluid signals via specialized cilia and Smoothened receptor.

This study maps the spatial and molecular changes in neural progenitor cells in the human dentate gyrus from gestation to postnatal stages, showing a decline in neurogenic potential and transition to astrocytic features.

The paper investigates metabolic and transcriptional changes in microglia after phagocytosis, showing these adaptations sustain their functionality and regenerative properties.

This paper uses cerebral organoids to model Tuberous Sclerosis Complex and identifies mechanisms of neural activity changes in epileptogenesis, showing potential for drug testing.

The paper identifies kranocytes as sensory platforms in neuromuscular junctions that connect adjacent junctions, interact with microvasculature, and respond to injury or disease.

This study identifies B2 cells as the primary neural stem cells in the adult mouse V-SVZ, replacing B1 cells postnatally to sustain neurogenesis.

This study examines the anatomy, histology, and ultrastructure of the human olfactory peduncle using microscopy techniques, revealing three layers, neuronal types, and associations between corpora amylacea and astrocytes.

This study creates a cross-species proteomic map of synapse development in human, macaque, and mouse neocortex, revealing slower human PSD maturation and its potential link to neoteny.

The paper uses single-cell and single nucleus sequencing to identify two distinct adult neurogenic lineages in the mouse V-SVZ, marked by specific gene expression patterns.