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首页> 外文期刊>Electrophoresis: The Official Journal of the International Electrophoresis Society >Electro-osmotic surface effects generation in an electrokinetic-based transport device: A comparison of RF and MW plasma generating sources
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Electro-osmotic surface effects generation in an electrokinetic-based transport device: A comparison of RF and MW plasma generating sources

机译:电动渗透表面效应在基于电动的传输装置中产生:RF和MW等离子体产生源的比较

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摘要

It is a common practice in insulator-based dielectrophoretic separation to use and reuse PDMS-constructed microdevice for an extended period of time while performing biological and technical replicate experiments. This is usually done to rule out any effects of device variation on separation efficiency. Ensuring that all experimental conditions remain the same is critical to the conclusion that can be drawn from such repeated experiments. One important contributing factor to the flow of materials within the device is electro-osmotic velocity, which stems from the surface condition of the device construction materials. In this paper, we present an affordable microwave-based (MESA-Mgen) oxygen plasma cleaner developed for approximately less than $100 using readily obtainable parts from an average local hardware store with no specialized tools. This low-cost room-air microwave plasma generator was designed using an R-4055, 400 W, 2450 MHz half-pint household microwave oven (Sharp (R)) for exploring the possibility of sealing polydimethylsiloxane (PDMS) devices onto glass with minimal budgetary commitment. Microfluidic channels generated using MESA-Mgen were evaluated for their electro-osmotic velocities while factors including contact angles, storage-solvent, half-way hydrophobicity period were also explored with MESA-Mgen, and the results were compared to those obtained from the commercially available plasma cleaner (COM-PC). These outcomes revealed that the MESA-Mgen induced hydrophilicity and ensured leak-free sealing of PDMS substrates in a manner comparable with the COM-PC.
机译:它是绝缘体基介电泳分离的常见做法,在执行生物和技术复制实验的同时在延长的时间内使用和重复使用PDMS构造的微生物。这通常是为了排除设备变化对分离效率的任何影响。确保所有实验条件仍然相同对可以从这种重复的实验中的结论至关重要。装置内材料流动的一个重要贡献因子是电渗透速度,其源于器件结构材料的表面状况。在本文中,我们介绍了一种经济实惠的微波(Mesa-Mgen)氧等离子体净化器,其使用易于从一个没有专门的工具的普通本地硬件商店的易于获得的部件开发出大约100美元。使用R-4055,400 W,2450 W,2450 MHz半品脱家用微波炉(夏普(R))设计了这种低成本的室内空气微波等离子发生器,用于探索用最小化的玻璃上的聚二甲基硅氧烷(PDMS)器件的可能性预算承诺。评价使用MESA-MGGEN产生的微流体通道,用于它们的电渗透速度,同时还通过MESA-MGEN探索包括接触角,储存溶剂,中途疏水性期的因素,并将结果与​​从市售的那些进行比较等离子清洁剂(COM-PC)。这些结果表明,MESA-MGEN诱导亲水性并以与COM-PC相当的方式确保PDMS基板的无泄密密封。

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