DescriptionSpinal cord injury (SCI) results in neuronal damage and glial scar formation, leading to loss of function and paralysis below the injury site. Although there are assistive devices in the market, there are no therapeutics that promote complete repair and regeneration after SCI. Major hurdles in neural regeneration include a limited level of neurogenesis in the adult spinal cord, an inflammatory microenvironment that inhibits neurogenesis, axon regeneration, neuronal relay formation, and myelination at the injury site. Promoting endogenous neural stem and progenitor cells (NSPCs) for tissue regeneration represents a potential strategy for the treatment of SCI. However, adult NSPCs largely differentiate into glial cells and contribute to glial scar formation in the injured spinal cord. Using virus-mediated delivery system as a potential therapeutics, we examined the effects of neurogenic factors on SCI in a mouse model. We identified that neurogenic factors promote cell proliferation and activation of NSPCs by activating Notch and Nanog signaling pathways during the acute stage of SCI. These factors promote the generation of various types of neurons (e.g., glutamatergic and cholinergic interneurons) and inhibit the generation of GABAergic interneurons in the injured spinal cord. Importantly, during the chronic stage, the treatment reduces glial scar formation and dramatically improves functional locomotion. Collectively, these findings suggest the neurogenic factors represent promising therapeutic genes for the treatment of SCI and provide molecular insight for transcription factor-mediated functional recovery.