Whole-brain light-sheet imaging of axons segmented by trained convolutional networks reveals distinct projection patterns of genetically defined classes of neurons in primary and secondary whisker-related somatosensory cortices.

Dynamic local microenvironments in Drosophila facilitate axonal projection direction transitions in the absence of clear landmarks.

A guide summarizing the diversity of cell types in the parabrachial nucleus.

Midbrain dopamine neurons function according to their axonal projections in the intact brain.

NMDAR receptors act in regulating axon guidance of somatosensory callosal projections in early postnatal life and the expression of EPHB2 receptors in target cells.

The developing neocortex exhibits spontaneous network activity with various synchrony levels, and such activity is selectively required during a critical developmental time window for the formation of long-range axonal projections connecting the two cortical hemispheres.

In the central amygdala, transcriptomic definition of cell types and corresponding spatial transcriptomic analysis reveals major regional differences in molecular organization and relates newly identified molecularly defined cell types to major axon projection targets.

Action potentials propagating in axon bundles with bifurcating and terminating fibers cause strong and far-reaching extracellular potentials.

The combination of single-cell transcriptomics and whole-brain mapping of bulk and single-cell projections reveals the relationship between the molecular architecture, cell body distribution, and axonal arborization of serotonin neurons.

Repulsive guidance cues enhance a dual-functioning axonal trafficking facilitator, allowing navigating axons to ensure proper pathfinding by coordinating positive extension and negative steering during nervous system development.