Journal of the American Chemical Society · 2011 · 430 citations · 29 references
EngineeringBioengineeringCell BiologyBiomaterialsBiosensorsCapsule TechnologyCell EncapsulationCell-based BiosensorsSurface ImmobilizationCell Encapsulation MaterialsCell-based SensorsCell-encapsulating MaterialsEncapsulationEncapsulation StrategiesLiving Cell SensorsMussel-inspired AdhesivesYeast Cell Encapsulation
The individual encapsulation of living cells has a great impact on the area of cell-based sensors and devices as well as fundamental studies in cell biology. In this work, living yeast cells were individually encapsulated with functionalizable, artificial polydopamine shells, inspired by an adhesive protein in mussels. Yeast cells maintained their viability within polydopamine, and the cell cycle was controlled by the thickness of the shells. In addition, the artificial shells aided the cell in offering much stronger resistance against foreign aggression, such as lyticase. After formation of the polydopamine shells, the shells were functionalized with streptavidin by utilizing the chemical reactivity of polydopamine, and the functionalized cells were biospecifically immobilized onto the defined surfaces. Our work suggests a biomimetic approach to the encapsulation and functionalization of individual living cells with covalently bonded, artificial shells.
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Mussel-Inspired Surface Chemistry for Multifunctional Coatings
Haeshin Lee, Shara M. Dellatore, William M. Miller et al. · Science · 2007 · 10.7K citations · Full text
In Vivo Imaging of Membrane-Associated Glycans in Developing Zebrafish
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