Show pageBacklinksCite current pageExport to PDFBack to top This page is read only. You can view the source, but not change it. Ask your administrator if you think this is wrong. ====== Neuroplasticity Markers ====== **Neuroplasticity** is the ability of the nervous system to adapt, reorganize, and regenerate. **Neuroplasticity markers** are molecules indicating or mediating these changes. ===== 1. Key Neuroplasticity Markers ===== ^ Marker ^ Function ^ Notes ^ | **BDNF** | Promotes neuronal survival, synaptic growth, plasticity | Upregulated by exercise, neurostimulation | | **GAP-43** | Axonal growth and regeneration | High after nerve injury | | **Synaptophysin** | Synaptic vesicle protein; synapse density marker | Synaptogenesis and remodeling | | **MAP2** | Maintains dendritic structure | Dendritic remodeling indicator | | **PSA-NCAM** | Promotes cell migration and plasticity | Regenerative processes | | **Nogo-A** | Inhibits axonal growth | Target for enhancing regeneration | | **c-Fos** | Immediate early gene for neuronal activity | Plastic change marker | | **CREB** | Regulates plasticity-related gene expression | Crucial for memory and long-term plasticity | ===== 2. Neuroplasticity in Spinal Cord Injury (SCI) ===== - Positive markers (BDNF, GAP-43) increase during regenerative attempts. - Negative regulators (Nogo-A) inhibit axonal regrowth. - Therapies target enhancing positive markers and inhibiting negative regulators. ===== Summary ===== **Neuroplasticity markers** help track recovery, assess therapeutic interventions, and reveal mechanisms of nervous system adaptation. neuroplasticity_markers.txt Last modified: 2025/04/25 21:56by 127.0.0.1