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Nano-patterned SU-8 surface using nanosphere-lithography for enhanced neuronal cell growth
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Title
Nano-patterned SU-8 surface using nanosphere-lithography for enhanced neuronal cell growth
DGIST Authors
Kim, EunheeYoo, Seung-JunKim, EunjungKwon, Tae-HwanZhang, LiMoon, CheilChoi, Hongsoo
Issued Date
2016-04
Citation
Kim, Eunhee. (2016-04). Nano-patterned SU-8 surface using nanosphere-lithography for enhanced neuronal cell growth. doi: 10.1088/0957-4484/27/17/175303
Type
Article
Article Type
Article
Author Keywords
nano-patternednanosphere lithographyneurite outgrowthsurface modification
Keywords
CIRCULATING TUMOR-CELLSCytologyDIFFERENTIATIONemBRYONIC STem-CELLSExtracellular MatricesHIPPOCAMPAL-NEURONSImplants (Surgical)IN-VITROLithographyMicroelectrodesNano-PatternedNano-Scale SurfacesNano Sphere LithographyNanosphere LithographyNanospheresNeurite OutgrowthNeurite OutgrowthNeurite OutgrowthNeuronal DevelopmentNeuronsPlastic CoatingsPolystyrene NanoparticlesSurface ModificationSurface TreatmentTISSUESAdhesionAmino ACIDsBiocompatibilityCell CultureCell Culture MediumsCELLS
ISSN
0957-4484
Abstract
Mimicking the nanoscale surface texture of the extracellular matrix can affect the regulation of cellular behavior, including adhesion, differentiation, and neurite outgrowth. In this study, SU-8-based polymer surfaces with well-ordered nanowell arrays were fabricated using nanosphere lithography with polystyrene nanoparticles. We show that the SU-8 surface with nanowells resulted in similar neuronal development of rat pheochromocytoma (PC12) cells compared with an unpatterned poly-L-lysine (PLL)-coated SU-8 surface. Additionally, even after soaking the substrate in cell culture medium for two weeks, cells on the nanowell SU-8 surface showed long-term neurite outgrowth compared to cells on the PLL-coated SU-8 surface. The topographical surface modification of the nanowell array demonstrates potential as a replacement for cell adhesive material coatings such as PLL, for applications requiring long-term use of polymer-based implantable devices. © 2016 IOP Publishing Ltd.
URI
http://hdl.handle.net/20.500.11750/1643
DOI
10.1088/0957-4484/27/17/175303
Publisher
Institute of Physics Publishing
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Moon, Cheil문제일

Department of Brain Sciences

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