Forniceal deep brain stimulation is a promising treatment for several neuropsychiatric disorders as it upregulates synaptic and neurogenesis-associated genes, normalizes genes misregulated in Rett syndrome mice, and regulates genes altered in intellectual disability and major depression.

In the mouse olfactory bulb, different types of local dopaminergic interneuron are produced before and after birth.

Early postembryonic bodily movement sends neural feedback through dorsal root ganglia to the forebrain in order to regulate the rate of neurogenesis and subsequent brain growth.

High-frequency stimulation of the ventromedial prefrontal cortex, which enhances memory and hippocampal neurogenesis, is a novel target for treatment of dementia-related diseases.

Forgetting of remote fear memory is promoted by increased hippocampal neurogenesis only after hippocampal reactivation by long time memory retrieval.

During early cortical development, microRNA-128 regulates the homeostasis of neural stem cells by targeting PCM1, a protein that is critical for cell division.

Kv1.1 potassium channels regulate postnatal neurogenesis in the hippocampus via increasing the membrane excitability that activates the TrkB signaling pathway in a cell-autonomous manner.

Rather than acting as passive and neutral co-factors for proneural proteins, E proteins play an active role in modulating the way the distinct proneural proteins instruct neurogenesis.

Exposing rats to acute stress increased the generation of new neurons in a subregion of the hippocampus, and improved the animals' performance in a memory task two weeks later.

Hilar mossy cells control seizure-dependent dentate neurogenesis and stem cell quiescence by activity-dependent control of Sonic hedgehog production and signaling.