THESIS
2013
viii, 55 pages : illustrations (some color) ; 30 cm
Abstract
Microfluidic technology has been experiencing fast developing decades. It usually
aims to offer better solutions for various areas, including chemical synthesis, analysis and
biomedical science. Among all microfluidics materials, Poly(dimethylsiloxane) (PDMS)
greatly simplifies microchips fabrication method and has been developed rapidly in this
field. However, applications of PDMS chips are severely limited by a few drawbacks that
are inherent to this material. Considering of Teflon's properties, such as gas permeable and
bio-friendly, we applied thermobonding process to fabricating a device for different
biological applications.
In this study, we have mainly focused on fabrication of multilayer Teflon chip and its
biological applications. In the first part, we fabricated mult...[
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Microfluidic technology has been experiencing fast developing decades. It usually
aims to offer better solutions for various areas, including chemical synthesis, analysis and
biomedical science. Among all microfluidics materials, Poly(dimethylsiloxane) (PDMS)
greatly simplifies microchips fabrication method and has been developed rapidly in this
field. However, applications of PDMS chips are severely limited by a few drawbacks that
are inherent to this material. Considering of Teflon's properties, such as gas permeable and
bio-friendly, we applied thermobonding process to fabricating a device for different
biological applications.
In this study, we have mainly focused on fabrication of multilayer Teflon chip and its
biological applications. In the first part, we fabricated multilayer Teflon chips and ensure
stable samples infusion to simulate cell culture conditions. We further detected the
performance of Teflon chips by testing the free radical-induced cytotoxicity and
antioxidant-mediated viability. Then we designed a four-layer chip to explore the
combination effect of various estrogens and estrogen receptor antagonists on MVLN cells.
These inventions and new designs could help expand the potential applications of
microfluidic devices.
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