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Molecular genetics identifies a novel microglial pathway essential for mouse brain development and a previously unknown anti-inflammatory activity of monomeric amyloid β that activates this pathway.

An activity-dependent mechanism sculpts subcellular segregation of sensory inputs.

An astrocytic scaffold that depends on SOX9 guides embryonic neuronal progenitors toward the developing dentate gyrus.

A single-nucleus transcriptomic atlas reveals the molecular signatures and trajectory dynamics of the neurogenic lineage in the human hippocampus during neonatal development, adulthood, aging, and after injury.

Multiphoton live-imaging illuminates the dynamic underpinnings of how different types of progenitor cells migrate and interact to robustly build the mammalian Dentate Gyrus neural circuitry and new outer neurogenic niche.

A combination of single-cell RNA sequencing of the developing septum and genetic fate mapping is used to analyze the origin of septal neurons.

The extracellular matrix formed during embryonic brain development facilitates the migration of cortical neurons.

Dystroglycan interacts with multiple partners, including the transmembrane receptor Celsr3, to regulate axon tract formation throughout the developing nervous system.

The mesenchyme surrounding the developing brain plays a significant role in controlling the fundamental growth and patterning of the cerebellum, and misregulation of this signalling can lead to important neurodevelopmental disorders.

During development the Sonic Hedgehog protein is produced by epithelial structures and acts at a distance in the brain and perhaps in other organs.