Nanofabrication of Nonfouling Surfaces for Micropatterning of Cell and Microtissue

Surface engineering techniques for cellular micropatterning are emerging as important tools to clarify the effects of the microenvironment on cellular behavior, as cells usually integrate and respond the microscale environment, such as chemical and mechanical properties of the surrounding fluid and...

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Main Author: Hidenori Otsuka
Format: Article
Language:English
Published: MDPI AG 2010-08-01
Series:Molecules
Subjects:
Online Access:http://www.mdpi.com/1420-3049/15/8/5525/
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spelling doaj-6f9a795c871e495d8f8d9fb56e00aa4b2020-11-24T23:06:32ZengMDPI AGMolecules1420-30492010-08-011585525554610.3390/molecules15085525Nanofabrication of Nonfouling Surfaces for Micropatterning of Cell and MicrotissueHidenori OtsukaSurface engineering techniques for cellular micropatterning are emerging as important tools to clarify the effects of the microenvironment on cellular behavior, as cells usually integrate and respond the microscale environment, such as chemical and mechanical properties of the surrounding fluid and extracellular matrix, soluble protein factors, small signal molecules, and contacts with neighboring cells. Furthermore, recent progress in cellular micropatterning has contributed to the development of cell-based biosensors for the functional characterization and detection of drugs, pathogens, toxicants, and odorants. In this regards, the ability to control shape and spreading of attached cells and cell-cell contacts through the form and dimension of the cell-adhesive patches with high precision is important. Commitment of stem cells to different specific lineages depends strongly on cell shape, implying that controlled microenvironments through engineered surfaces may not only be a valuable approach towards fundamental cell-biological studies, but also of great importance for the design of cell culture substrates for tissue engineering. To develop this kind of cellular microarray composed of a cell-resistant surface and cell attachment region, micropatterning a protein-repellent surface is important because cellular adhesion and proliferation are regulated by protein adsorption. The focus of this review is on the surface engineering aspects of biologically motivated micropatterning of two-dimensional surfaces with the aim to provide an introductory overview described in the literature. In particular, the importance of non-fouling surface chemistries is discussed. http://www.mdpi.com/1420-3049/15/8/5525/micropatterningspheroidco-culture3D culturenon-fouling surfacecell-cell interactions
collection DOAJ
language English
format Article
sources DOAJ
author Hidenori Otsuka
spellingShingle Hidenori Otsuka
Nanofabrication of Nonfouling Surfaces for Micropatterning of Cell and Microtissue
Molecules
micropatterning
spheroid
co-culture
3D culture
non-fouling surface
cell-cell interactions
author_facet Hidenori Otsuka
author_sort Hidenori Otsuka
title Nanofabrication of Nonfouling Surfaces for Micropatterning of Cell and Microtissue
title_short Nanofabrication of Nonfouling Surfaces for Micropatterning of Cell and Microtissue
title_full Nanofabrication of Nonfouling Surfaces for Micropatterning of Cell and Microtissue
title_fullStr Nanofabrication of Nonfouling Surfaces for Micropatterning of Cell and Microtissue
title_full_unstemmed Nanofabrication of Nonfouling Surfaces for Micropatterning of Cell and Microtissue
title_sort nanofabrication of nonfouling surfaces for micropatterning of cell and microtissue
publisher MDPI AG
series Molecules
issn 1420-3049
publishDate 2010-08-01
description Surface engineering techniques for cellular micropatterning are emerging as important tools to clarify the effects of the microenvironment on cellular behavior, as cells usually integrate and respond the microscale environment, such as chemical and mechanical properties of the surrounding fluid and extracellular matrix, soluble protein factors, small signal molecules, and contacts with neighboring cells. Furthermore, recent progress in cellular micropatterning has contributed to the development of cell-based biosensors for the functional characterization and detection of drugs, pathogens, toxicants, and odorants. In this regards, the ability to control shape and spreading of attached cells and cell-cell contacts through the form and dimension of the cell-adhesive patches with high precision is important. Commitment of stem cells to different specific lineages depends strongly on cell shape, implying that controlled microenvironments through engineered surfaces may not only be a valuable approach towards fundamental cell-biological studies, but also of great importance for the design of cell culture substrates for tissue engineering. To develop this kind of cellular microarray composed of a cell-resistant surface and cell attachment region, micropatterning a protein-repellent surface is important because cellular adhesion and proliferation are regulated by protein adsorption. The focus of this review is on the surface engineering aspects of biologically motivated micropatterning of two-dimensional surfaces with the aim to provide an introductory overview described in the literature. In particular, the importance of non-fouling surface chemistries is discussed.
topic micropatterning
spheroid
co-culture
3D culture
non-fouling surface
cell-cell interactions
url http://www.mdpi.com/1420-3049/15/8/5525/
work_keys_str_mv AT hidenoriotsuka nanofabricationofnonfoulingsurfacesformicropatterningofcellandmicrotissue
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