通过控制电压偏置方向，利用电渗流效应使毛细管多孔导电膜的刻蚀成功率得到显著提高。
The success rate of porous conductive membrane preparation on fused silica capillary was greatly improved by control of voltage bias and electroosmosis effect.
我们发现，类似的结果，可仅仅是确保电力的直接接触样品内的熔石英毛细管和高电压供应。
We find that similar results can be obtained merely by ensuring a direct electrical contact between the analyte inside a fused-silica capillary and the high-voltage supply.
研究了毛细管电泳的相关基础理论，从理论上较深入地研究分析了传统的毛细管高电压分离模式与本文所采用的低电压运动梯度场分离模式。
The relative theory of capillary electrophoresis has been studied. The low voltage separation models with moving grade electrical field and high voltage separation model have been discussed.
在此基础上，进行低电压毛细管电泳芯片集成系统的初步实验，并提出了后续工作需解决的相关问题。
On this basis, the preliminary experiments of low-voltage electrophoresis separation chip integration system were tested, and the related issues of future work are proposed.
在此基础上，进行低电压毛细管电泳芯片集成系统的初步实验，并提出了后续工作需解决的相关问题。
On this basis, the preliminary experiments of low-voltage electrophoresis separation chip integration system were tested, and the related issues of future work are proposed.
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