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Paper Details

Neonatal mouse cortical but not isogenic human astrocyte feeder layers enhance the functional maturation of induced pluripotent stem cell-derived neurons in culture.
Glia
20
2018
-derived neurons, Human, Human induced pluripotent stem (iPS) cell-derived neurons, NSCs, RNA, astrocyte, astrocytes, co-culture system, differentiated neurons, functional cell phenotypes, glutamate, glutamate receptor-channel, human, human NSCs, human iPS cell-derived astrocytes, human isogenic iPS cell-derived astrocytes, iPS cell, iPS cell-derived NSCs, iPS cell-derived neural stem cells, iPS cell-derived neurons, induced pluripotent stem (iPS) cell, induced pluripotent stem cell-derived neurons, isogenic human iPS cell-derived astrocytes, mouse, neonatal mouse cortical astrocytes, nervous system disease, neurons
Author NameAffiliation
Matthew D WilkersonUniformed Services University of the Health Sciences
Matthew D WilkersonUniformed Services University of the Health Sciences
Matthew D WilkersonUniformed Services University of the Health Sciences
Matthew D WilkersonUniformed Services University of the Health Sciences
Matthew D WilkersonUniformed Services University of the Health Sciences
Matthew D WilkersonUniformed Services University of the Health Sciences
Clifton L DalgardCenter for Neuroscience and Regenerative Medicine, Uniformed Services University of the Health Sciences
Clifton L DalgardUniformed Services University of the Health Sciences
Clifton L DalgardUniformed Services University of the Health Sciences
Clifton L DalgardUniformed Services University of the Health Sciences
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