Microfluidic platform incorporating bioactive PEG hydrogel for optimized hepatocyte function

To engineer a functional in vitro liver tissue platform, necessary for drug testing and fundamental liver disease studies, it is important to recapitulate important parameters of the hepatic microenvironment. Recent introduction of microfluidics to cell culture has enabled a high degree of control o...

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Main Author: Kumar, Supriya Kamakshi
Other Authors: Cho Nam-Joon
Format: Theses and Dissertations
Language:English
Published: 2016
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Online Access:https://hdl.handle.net/10356/69004
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Institution: Nanyang Technological University
Language: English
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spelling sg-ntu-dr.10356-690042023-03-04T16:42:35Z Microfluidic platform incorporating bioactive PEG hydrogel for optimized hepatocyte function Kumar, Supriya Kamakshi Cho Nam-Joon School of Materials Science & Engineering DRNTU::Engineering::Materials::Biomaterials To engineer a functional in vitro liver tissue platform, necessary for drug testing and fundamental liver disease studies, it is important to recapitulate important parameters of the hepatic microenvironment. Recent introduction of microfluidics to cell culture has enabled a high degree of control over the specific culture parameters, analysis of cells, and development of scaffolds. In this thesis, we focus on the microfluidic scaffold and propose to develop and integrate a bioactive synthetic hydrogel in a perfusable sealed microfluidic device (μFD) as a platform for encapsulated hepatocyte cell culture. Our overall hypothesis is that collagen type I (Col I)- functionalized poly (ethylene glycol) (PEG) hydrogel integrated in a sealed μFD is a hepatocyte cell culture platform comparable to widespread μFDs using Col I gel. The macromer concentration and bioactivity of the PEG hydrogel were tailored using simple chemistries and the integration of the bioactive hydrogel in the μFD was evaluated. Huh-7.5 cells were encapsulated in the scaffolds and biological assays were employed to identify the best conditions for cell culture. Another parameter explored was the introduction of pressure-induced flow to see if the microfluidic hydrogel could be perfused. The findings of this thesis research demonstrate the potential of PEG hydrogel to be used as a tailorable integrated microfluidic hydrogel for liver tissue engineering. This thesis research will contribute to the further development of an artificial liver platform that can then be used to test the efficacy of drugs. MASTER OF ENGINEERING (MSE) 2016-08-26T03:42:23Z 2016-08-26T03:42:23Z 2016 Thesis Kumar, S. K. (2016). Microfluidic platform incorporating bioactive PEG hydrogel for optimized hepatocyte function. Master's thesis, Nanyang Technological University, Singapore. https://hdl.handle.net/10356/69004 10.32657/10356/69004 en 115 p. application/pdf
institution Nanyang Technological University
building NTU Library
continent Asia
country Singapore
Singapore
content_provider NTU Library
collection DR-NTU
language English
topic DRNTU::Engineering::Materials::Biomaterials
spellingShingle DRNTU::Engineering::Materials::Biomaterials
Kumar, Supriya Kamakshi
Microfluidic platform incorporating bioactive PEG hydrogel for optimized hepatocyte function
description To engineer a functional in vitro liver tissue platform, necessary for drug testing and fundamental liver disease studies, it is important to recapitulate important parameters of the hepatic microenvironment. Recent introduction of microfluidics to cell culture has enabled a high degree of control over the specific culture parameters, analysis of cells, and development of scaffolds. In this thesis, we focus on the microfluidic scaffold and propose to develop and integrate a bioactive synthetic hydrogel in a perfusable sealed microfluidic device (μFD) as a platform for encapsulated hepatocyte cell culture. Our overall hypothesis is that collagen type I (Col I)- functionalized poly (ethylene glycol) (PEG) hydrogel integrated in a sealed μFD is a hepatocyte cell culture platform comparable to widespread μFDs using Col I gel. The macromer concentration and bioactivity of the PEG hydrogel were tailored using simple chemistries and the integration of the bioactive hydrogel in the μFD was evaluated. Huh-7.5 cells were encapsulated in the scaffolds and biological assays were employed to identify the best conditions for cell culture. Another parameter explored was the introduction of pressure-induced flow to see if the microfluidic hydrogel could be perfused. The findings of this thesis research demonstrate the potential of PEG hydrogel to be used as a tailorable integrated microfluidic hydrogel for liver tissue engineering. This thesis research will contribute to the further development of an artificial liver platform that can then be used to test the efficacy of drugs.
author2 Cho Nam-Joon
author_facet Cho Nam-Joon
Kumar, Supriya Kamakshi
format Theses and Dissertations
author Kumar, Supriya Kamakshi
author_sort Kumar, Supriya Kamakshi
title Microfluidic platform incorporating bioactive PEG hydrogel for optimized hepatocyte function
title_short Microfluidic platform incorporating bioactive PEG hydrogel for optimized hepatocyte function
title_full Microfluidic platform incorporating bioactive PEG hydrogel for optimized hepatocyte function
title_fullStr Microfluidic platform incorporating bioactive PEG hydrogel for optimized hepatocyte function
title_full_unstemmed Microfluidic platform incorporating bioactive PEG hydrogel for optimized hepatocyte function
title_sort microfluidic platform incorporating bioactive peg hydrogel for optimized hepatocyte function
publishDate 2016
url https://hdl.handle.net/10356/69004
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