Primary and higher order visual area dimensions in the neocortex are determined by the same genetic mechanisms during development which in turn also control the proportionate scaling between them.

RNA-binding proteins use both translational activation and repression of key molecular determinants to post-mitotically sculpt the identity and connectivity of developing mouse neocortex in an area-specific manner.

Novel insights into LIS1-dependent regulation of cell membrane contractility and cleavage axis specification identify a key molecular network regulating mitoses of neural progenitors and somatic cells during development.

VGF was identified as a factor secreted from thalamocortical axons essential for the cytoarchitectonic features of neocortical layer 4 in the sensory areas in mice.

Primary-cilia-mediated processing of the Gli3 transcription factor enables the formation of subtypes of projection neurons in appropriate numbers during the development of the cerebral cortex.

A new nomenclature convention for mammalian cell types utilizing shared taxonomies and quantitative cell features is applied to high-quality, open data from the mouse and human brain.

Single-cell mRNA sequencing data from mouse neocortex expose evidence for peptidergic neuromodulation networks that locally interconnect every cortical neuron.

Embryonic PI3K-Yap activity regulates apical adhesion and proliferation of neural progenitors lining the lateral ventricular surface, to maintain the smooth, non-folded mouse brain and to prevent developmental hydrocephalus.

Two intrinsic factors converge to govern the differentiation and integration of distinct characteristics of the hippocampus in mice.

Reliable neuronal physiology can arise from variable and inefficient morphologies.