Virtual microwells for digital microfluidic reagent dispensing and cell culture
Digital microfluidic (DMF) liquid handling includes active (electrostatic) and passive (surface tension) mechanisms for reagent dispensing. Here we implement a simple and straightforward Teflon-AF liftoff protocol for patterning hydrophilic sites on a two-plate device for precise passive dispensing...
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Veröffentlicht in: | Lab on a chip 2012-01, Vol.12 (4), p.75-757 |
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creator | Eydelnant, Irwin A Uddayasankar, Uvaraj Li, Bingyu Betty Liao, Meng Wen Wheeler, Aaron R |
description | Digital microfluidic (DMF) liquid handling includes active (electrostatic) and passive (surface tension) mechanisms for reagent dispensing. Here we implement a simple and straightforward Teflon-AF liftoff protocol for patterning hydrophilic sites on a two-plate device for precise passive dispensing of reagents forming virtual microwells an analogy to the wells found on a microtitre plate. We demonstrate here that devices formed using these methods are capable of reproducible dispensing of volumes ranging from 80 to 800 nL, with CVs of 0.7% to 13.8% CV. We demonstrate that passive dispensing is compatible with DMF operation in both air and oil, and provides for improved control of dispensed nano- and micro- litre volumes when compared to active electrostatic dispensing. Further, the technique is advantageous for cell culture and we report the first example of reagent dispensing on a single-plate DMF device. We anticipate this method will be useful for a wide range of applications particularly those involving adherent cell culture and analysis.
Virtual microwells are formed by passive dispensing on a digital microfluidic platform improving reagent dispensing and cell culture on one- and two-plate devices. |
doi_str_mv | 10.1039/c2lc21004e |
format | Article |
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Here we implement a simple and straightforward Teflon-AF liftoff protocol for patterning hydrophilic sites on a two-plate device for precise passive dispensing of reagents forming virtual microwells an analogy to the wells found on a microtitre plate. We demonstrate here that devices formed using these methods are capable of reproducible dispensing of volumes ranging from 80 to 800 nL, with CVs of 0.7% to 13.8% CV. We demonstrate that passive dispensing is compatible with DMF operation in both air and oil, and provides for improved control of dispensed nano- and micro- litre volumes when compared to active electrostatic dispensing. Further, the technique is advantageous for cell culture and we report the first example of reagent dispensing on a single-plate DMF device. We anticipate this method will be useful for a wide range of applications particularly those involving adherent cell culture and analysis.
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source | MEDLINE; Royal Society Of Chemistry Journals 2008-; Alma/SFX Local Collection |
subjects | Adherent cells Animals Cell Adhesion Cell Culture Techniques - instrumentation Cell Culture Techniques - methods Cell Line Dogs Microfluidic Analytical Techniques - instrumentation Microfluidic Analytical Techniques - methods Static Electricity |
title | Virtual microwells for digital microfluidic reagent dispensing and cell culture |
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