ACS Applied Materials & Interfaces · 2018 · 19 citations · 54 references
Natural SciencesNeurobiologyNeuroscienceBiomaterialsCellular NeuroscienceDevelopmental NeuroscienceNeural BiomaterialsNeural Tissue EngineeringPeptide ChemistryProtein-based BiomaterialsProtein-based NanomaterialsSynaptogenesisCulturing ConditionsDevelopmental Synaptic MaturationNeuronal Cell CulturePeptide Self-assemblyPeptide-based BiomaterialsPrimary Cell CultureSelf-assembling Peptide MaterialsSelf-assembling Peptide Nanomaterials
The culturing of primary neurons represents a central pillar of neuroscience research. Primary neurons are derived directly from brain tissue and recapitulate key aspects of neuronal development in an in vitro setting. Unlike neural stem cells, primary neurons do not divide; thus, initial attachment of cells to a suitable substrate is critical. Commonly used polylysine substrates can suffer from batch variability owing to their polymeric nature. Herein, we report the use of chemically well-defined, self-assembling tetrapeptides as substrates for primary neuronal culture. These water-soluble peptides assemble into fibers which facilitate adhesion and development of primary neurons, their long-term survival (>40 days), synaptic maturation, and electrical activity. Furthermore, these substrates are permissive toward neuronal transfection and transduction which, coupled with their uniformity and reproducible nature, make them suitable for a wide variety of applications in neuroscience.
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Ultrasensitive fluorescent proteins for imaging neuronal activity
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Direct conversion of fibroblasts to functional neurons by defined factors
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