Chronic deep cerebellar stimulation promotes long-term potentiation, microstructural plasticity, and reorganization of perilesional cortical representation in a rodent model

Keyphrases

• Long-term Potentiation 100%
• Cortical Representation 100%
• Cerebellar Stimulation 100%
• Perilesional 100%
• Rodent Models 100%
• Microstructural Plasticity 100%
• Postsynaptic Density Protein 95 (PSD-95) 66%
• Tissue Sampling 33%
• Deep Brain Stimulation 33%
• Motor Recovery 33%
• Pasta 33%
• Structural Change 33%
• Brain Injury 33%
• Treatment Strategy 33%
• Physiological Changes 33%
• Cerebral Cortex 33%
• Neurological Disorders 33%
• Long-term Plasticity 33%
• Western Blot Analysis 33%
• CaMKII 33%
• Multi-electrode 33%
• Intracortical Microstimulation 33%
• Retrieval Task 33%
• Synaptophysin 33%
• Non-progressive 33%
• Functional Change 33%
• Long-Evans Rats 33%
• Translational Potential 33%
• Contralesional 33%
• Lateral Cerebellar nucleus 33%
• Cortical Ischemia 33%
• Forepaw 33%
• Synaptic Markers 33%
• NMDAR1 33%
• Cortical Plasticity 33%
• Frontiers of Science 33%
• CNS Plasticity 33%
• 3D Electron Microscopy 33%
• Cortical Infarcts 33%

Neuroscience

• Long-Term Potentiation 100%
• Deep Brain Stimulation 50%
• Cerebral Cortex 50%
• Western Blot 50%
• Electron Microscopy 50%
• Nervous System Disorder 50%
• Synaptophysin 50%
• Ischemia 50%