Neuron-specific partial reprogramming in the dentate gyrus impacts mouse behavior and ameliorates age-related decline in memory and learning.
Vilchez-Acosta, A.; Maza, M. d. C.; Parras, A.; Planells, A.; Pico, S.; Desdin-Mico, G.; Mrabti, C.; Branchina, C.; Yacoub Maroun, C.; Deigin, Y.; Ocampo, A.
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Age-associated neurodegenerative disorders represent significant challenges due to progressive neuronal decline and limited treatments. In aged mice, partial reprogramming, characterized by pulsed expression of reprogramming factors, has shown promise in improving function in various tissues, but its impact on the aging brain remains poorly understood. Here we investigated the impact of in vivo partial reprogramming on mature neurons in the dentate gyrus of young and aged mice. Using two different approaches - a neuron-specific transgenic reprogrammable mouse model and neuron-specific targeted lentiviral delivery of OSKM reprogramming factors - we demonstrated that in vivo partial reprogramming of mature neurons in the dentate gyrus, a neurogenic niche in the adult mouse brain, can influence animal behavior, and ameliorate age-related decline in memory and learning. These findings underscore the potential of in vivo partial reprogramming as an important therapeutic intervention to rejuvenate the neurogenic niche and ameliorate cognitive decline associated with aging or neurodegeneration.
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