Long intergenic noncoding RNA molecules (lincRNAs) are shown to have critical roles in mammalian development and physiology in vivo.

The excessive behavioral variability associated with adolescence is the result of greater instability of widespread or global gain signals which produces greater variability in the amplitude of expression of whole-brain states of task-related activity.

The discovery of a unique brain lymphatic cell type in the zebrafish model will facilitate the study of embryonic development and physiology, an essential mission to understand how clearance of macromolecules impact neurological diseases.

NMDARs promote spine formation to control survival of adult-born granule cells, but gauge spine enlargement and recruitment of AMPARs in both developing and mature neurons.

Trajectories of adolescent drinking behavior between age 14 and 19 years can be predicted from bilateral striatal and cerebellar grey matter at 14 years of age.

Direct measure of neural and hemodynamic activity in the developing human brain shows that the insula is a major source of transient bursting events that are critical for cortical maturation.

Building on previous work (Haldipur et al., 2014), we show that many key mechanisms controlling cerebellar development are likely conserved between mouse and human, and validate our mouse model of Dandy-Walker malformation.

Electrophysiological activity indicates superior implicit crossmodal learning in infants and a change in learning mode from infancy to adulthood.