Journal of Biomechanical Engineering · 1999 · 166 citations · 38 references
Tissue EngineeringEngineeringNerve Cell GrowthBiofabricationCell CultureNeurotransmissionBiomedical EngineeringPeripheral NerveStructural PlasticityOptogeneticsNeurochipMicrofluidicsSilane Linker ChemistryMicrocontact PrintingNervous SystemPrecise Control3D PrintingMicrofabricationPolyethylene Glycol BackgroundNeuroscienceTissue CultureMedicine
Microcontact printing, facilitated by silane linker chemistry and high-relief stamps, creates precise patterns of proteins, which in turn control growth of hippocampal neurons in culture. This additive, multi-mask technique permits several different molecules to be patterned on the same substrate. The covalent linker technology permits relatively long-term (two-week) compliance of neurons to the stamped pattern against a polyethylene glycol background. When polylysine was stamped adjacent to a laminin/polylysine mixture, neural somata and dendrites preferred the polylysine while axons prefer the mixture or the border between the two.
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Gregory J. Brewer, John R. Torricelli, E. K. Evege et al. · Journal of Neuroscience Research · 1993 · 2.3K citations
B27‐supplemented Neurobasal™, Neuroregeneration, Developmental Biology +15
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Rahul Singhvi, Amit Kumar, Gabriel P. López et al. · Science · 1994 · 1.4K citations