The Brain's Plasticity Past the Cortex: Investigating the Portrayal of Glial Cells in Neuroplasticity and Disease Rehabilitation

The Brain's Plasticity Past the Cortex: Investigating the Portrayal of Glial Cells in Neuroplasticity and Disease Rehabilitation

Alvin Sherman Library

Neuroplasticity, the brain’s capability to reorganize and create new neural connections, has consistently been assigned to neurons. Still, up-and-coming research highlights the important role of glial cells: astrocytes, microglia, and oligodendrocytes, in adjusting synaptic plasticity, carrying out neuronal survival, and clearing the way for network reconstruction. This research aims to investigate how glial cells influence and contribute to the brain’s flexible response and evaluate their possible future as therapeutic targets for conditions like traumatic brain injury and Alzheimer’s disease. Glial cells have proved to regulate neuronal survival, synaptic plasticity, and neuronal network reconstruction, proposing their potential as treatment objectives. By investigating the process through which glial cells affect neuroplasticity, this study aims to reveal fresh approaches for optimizing recovery and reconstruction in the central nervous system. In vitro cellular models will be used to replicate neural damage and evaluate glial cell responses. CRISPR-Cas9 gene editing will be used to regulate glial cell activity and evaluate its impact on synaptic plasticity and neuronal regeneration. Additionally, the possibility of gene therapy interventions to strengthen and increase glial cell activity and advance recovery will be investigated. Understanding the role of glial cells in neuroplasticity could revise therapeutic strategies for neurological disorders and injuries. By targeting glial cells, innovative interventions could possibly enhance brain recovery and rehabilitation, providing hope for patients with neurodegenerative conditions and brain injuries.