流电

The linear relationship between the reciprocal of electroosmotic mobility and the square root of concentration was derived by mathematical method.

通过数学方法推导出电渗流迁移率的倒数与缓冲液浓度的平方根之间存在线性关系。

The electroosmotic flow exhibits pH-independence in the range of 3—11 in dynamic modified microchannel.

经过此动态改性的微通道其电渗流在pH 3~11范围内保持稳定。

It was found that the electroosmotic flow of the modified chip varied relatively small with pH and exhibited good reproducibility and stability.

首次将聚丙烯氯化铵和聚丙烯酸通过静电吸附作用层层组装于聚二甲基硅氧烷/玻璃芯片内部，修饰后的芯片电渗流随pH值的变化较小，具有较好的重复性和稳定性，EOF在2周内的变化率为1.58%。

As microfluidic technologies mature, accurate methods for the measurement of electroosmotic flow velocity on microfluidic chips are becoming increasingly important.

随着微芯片技术的成熟，越来越迫切地需要有一个准确而简洁的电渗流速度的检测方法。

Its electroosmotic flow properties are investigated in a variety of nonaqueous media (methanol and mixtures of methanol and acetonitrile).

利用溶胶凝胶技术改进了二氧化锆涂层毛细管的制备方法，并系统的研究了非水体系中(甲醇以及甲醇和乙腈的混合溶剂)二氧化锆涂层毛细管在不同条件下的电渗流行为。

The influence mechanism of triangle surface roughness on electroosmotic flow in microchannels with circular cross-section is studied by the finite element simulation.

采用有限元模拟研究了壁面机糙度对圆形截面微通道内电渗流的影响机理。

Some results indicated that it was a key parameter that molecular mass of polyvinypyrrolidone in reducing electroosmotic flow and sieving DNA fragments.

在试验中发现电堆集富集可以有效地提高微流控芯片电泳的分辨率和分离效率。

The coated columns were effective to suppress the electroosmotic flow and prevent the absorption of basic proteins on the column wall.

所制备的涂层柱能够有效地抑制电渗流及蛋白质在管壁上的吸附。

We theoretically investigated the effects of incorporating Ih, T-type Ca2+ current, sustained inward current, and/or low-voltage-activated L-type Ca2+ channel current on 1 creation of BP cells, 2 robustness of BP activity to electrotonic loads of nonpacemaking cells, and 3 BP cell ability to drive NP cells.

我们从理论上研究了合并Ih， T-型 Ca2+流，持续内向电流，和/或低电压激活的L-型Ca2+通道电流对1产生 BP细胞， 2 BP 活性对非起搏细胞电紧张负荷的稳定性，和 3 BP 细胞驱动 NP细胞的能力的作用。

With pulse sampling and based on the difference in electric migration rates of components to be separated, a eluting stream is applied to elute different components sequentically.

随后采用脉冲进样方式，利用待分离组分在凝胶膜中的电迁移速率差异作为分离基础，在与电场方向相垂直的方向上施加一冲洗载流，将从膜中先后移出的组分依次冲出，从而实现分离。

The split between the two groups can hardly be papered over.

这两个团体间的分歧难以掩饰。

This approach not only encourages a greater number of responses, but minimizes the likelihood of stale groupthink.

这种做法不仅鼓励了更多的反应，而且减少跟风的可能性。