Literature DB >> 20844778

A simple PDMS-based microfluidic channel design that removes bubbles for long-term on-chip culture of mammalian cells.

Wenfu Zheng1, Zhuo Wang, Wei Zhang, Xingyu Jiang.   

Abstract

This report shows methods to fabricate polydimethylsiloxane (PDMS) microfluidic systems for long-term (up to 10 day) cell culture. Undesired bubble accumulation in microfluidic channels abruptly changes the microenvironment of adherent cells and leads to the damage and death of cells. Existing bubble trapping approaches have drawbacks such as the need to pause fluid flow, requirement for external vacuum or pressure source, and possible cytotoxicity. This study reports two kinds of integrated bubble trap (IBT) which have excellent properties, including simplicity in structure, ease in fabrication, no interference with the flow, and long-term stability. IBT-A provides the simplest solution to prevent bubbles from entering microfluidic channels. In situ time-lapse imaging experiments indicate that IBT-B is an excellent device both for bubble trapping and debubbling in cell-loaded microfluidics. MC 3T3 E1 cells, cultured in a long and curved microfluidic channel equipped with IBT-B, showed high viability and active proliferation after 10 days of continuous fluid flow. The comprehensive measures taken in our experiments have led to successful long-term, bubble-free, on-chip culture of cells.

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Year:  2010        PMID: 20844778     DOI: 10.1039/c005274d

Source DB:  PubMed          Journal:  Lab Chip        ISSN: 1473-0189            Impact factor:   6.799


  22 in total

1.  Automatic sequential fluid handling with multilayer microfluidic sample isolated pumping.

Authors:  Jixiao Liu; Hai Fu; Tianhang Yang; Songjing Li
Journal:  Biomicrofluidics       Date:  2015-10-01       Impact factor: 2.800

2.  Stem cells in microfluidics.

Authors:  Huei-Wen Wu; Chun-Che Lin; Gwo-Bin Lee
Journal:  Biomicrofluidics       Date:  2011-03-30       Impact factor: 2.800

3.  A micropillar array for sample concentration via in-plane evaporation.

Authors:  Jae-Woo Choi; Seyyed Mohammad Hosseini Hashemi; David Erickson; Demetri Psaltis
Journal:  Biomicrofluidics       Date:  2014-07-21       Impact factor: 2.800

4.  Tunable microfluidic standing air bubbles and its application in acoustic microstreaming.

Authors:  Jixiao Liu; Bowen Li; Tong Zhu; Yidi Zhou; Shanshan Li; Shijie Guo; Tiejun Li
Journal:  Biomicrofluidics       Date:  2019-06-06       Impact factor: 2.800

5.  Bubble-free and pulse-free fluid delivery into microfluidic devices.

Authors:  Yang Jun Kang; Eunseop Yeom; Eunseok Seo; Sang-Joon Lee
Journal:  Biomicrofluidics       Date:  2014-01-29       Impact factor: 2.800

6.  Endothelial cell polarization and orientation to flow in a novel microfluidic multimodal shear stress generator.

Authors:  Utku M Sonmez; Ya-Wen Cheng; Simon C Watkins; Beth L Roman; Lance A Davidson
Journal:  Lab Chip       Date:  2020-11-24       Impact factor: 6.799

7.  Multi-Domain Photopatterned 3D Tumor Constructs in a Micro-Physiological System for Analysis, Quantification, and Isolation of Infiltrating Cells.

Authors:  Shiny A P Rajan; Aleksander Skardal; Adam R Hall
Journal:  Adv Biosyst       Date:  2020-02-25

8.  A microfluidic cell co-culture platform with a liquid fluorocarbon separator.

Authors:  Bryson M Brewer; Mingjian Shi; Jon F Edd; Donna J Webb; Deyu Li
Journal:  Biomed Microdevices       Date:  2014-04       Impact factor: 2.838

Review 9.  Physiologically based pharmacokinetic models: integration of in silico approaches with micro cell culture analogues.

Authors:  A Chen; M L Yarmush; T Maguire
Journal:  Curr Drug Metab       Date:  2012-07       Impact factor: 3.731

10.  Lateral Degassing Method for Disposable Film-Chip Microfluidic Devices.

Authors:  Suhee Park; Hyungseok Cho; Junhyeong Kim; Ki-Ho Han
Journal:  Membranes (Basel)       Date:  2021-04-26
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