Fully Characterized Mature Human iPS- and NMP-Derived Motor Neurons Thrive Without Neuroprotection in the Spinal Contusion Cavity

Keyphrases

• Neuroprotection 100%
• Motor Neuron 100%
• Spinal Motor Neurons 100%
• Spinal Contusion 100%
• Human iPS 100%
• Spinal Cord Injury 66%
• Transplantation 66%
• Neural Stem Cells 66%
• Oligodendrocyte Precursor Cells 66%
• Motor Neuron Progenitors 66%
• Research Use 33%
• Cell-based 33%
• Spinal Cord 33%
• Electrophysiology 33%
• Neuronal Cells 33%
• Clinical Application 33%
• Predictable Outcome 33%
• Progenitor Cell Fate 33%
• Biomaterials 33%
• Neuroprotective 33%
• Limited Information 33%
• Transcriptome Profile 33%
• Proteomic Profile 33%
• Engraftment 33%
• Differentiated Neurons 33%
• Cervical Spinal Cord 33%
• Induced Pluripotent Stem Cells (iPSCs) 33%
• Injury Levels 33%
• Multipotent 33%
• Animal Research 33%
• Cytokine Factors 33%
• Matrix Factor 33%
• Natural Origin 33%
• Neuromesodermal Progenitors 33%
• Neural Fate Specification 33%
• Parameter Priors 33%

Medicine and Dentistry

• Spinal Cord Injury 100%
• Ex Vivo 100%
• Progenitor Cell 100%
• Neuroprotection 100%
• Contusion 100%
• Nervous System Cell 100%
• Neural Stem Cell 100%
• Oligodendrocyte 100%
• In Vitro 50%
• Cytokine 50%
• Electrophysiology 50%
• Cell Fate 50%
• Proteomics 50%
• Cervical Spinal Cord 50%
• Biocompatible Material 50%
• Cell Therapy 50%
• Neuroprotective Agent 50%
• Engraftment 50%
• Transcriptomics 50%

Neuroscience

• Spinal Cord Injury 100%
• Neuroprotection 100%
• Progenitor Cell 100%
• Nervous System Cell 100%
• Neural Stem Cell 100%
• Oligodendrocyte Progenitor 100%
• In Vitro 50%
• Neuroprotective Agent 50%
• Cell Therapy 50%
• Electrophysiology 50%
• Transcriptomics 50%
• Cell Fate 50%
• Proteomics 50%
• Cytokine 50%