双极充电的颗粒直径在1 ~ 10 μ m的尺寸范围内

R. Fjeld, De-ming Wu, A. Mcfarland
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引用次数: 1

摘要

对直径为1 ~ 10 μ m的颗粒进行了双极充电实验,并利用数据对预测电荷获取的连续谱模型进行了评估。在外加电场的作用下,粒子暴露在正离子和负离子的逆流中。粒子电荷是通过观察粒子在均匀电场中的运动轨迹来确定的。在1 ~ 13的无因次电场中,离子电导率分别为3、10和无穷大。将这些数据与场扩散理论、经典场理论、经典扩散理论的预测结果以及由场和扩散近似相加形成的经验主义进行了比较。场扩散理论和场加扩散经验主义与测量结果非常吻合。场论在大于10的无量纲场中得到了很好的一致性,而扩散理论在所研究的无量纲场范围内明显低估了电荷。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Bipolar charging of particles in the 1 to 10 mu m diameter size range
Bipolar charging experiments were performed for particles in the 1 to 10 mu m diameter size range, and the data were used to evaluate continuum regime models for predicting charge acquisition. Particles were exposed to countercurrents of positive and negative ions in the presence of an external electric field. Particle charge was determined from observations of particle trajectories in a uniform electric field. Data were obtained for dimensionless electric fields from 1 to 13, and ion conductivity ratios of 3, 10, and infinity . The data were compared to predictions of field-diffusion theory, classical field theory, classical diffusion theory, and an empiricism formed by adding the field and diffusion approximations. Field-diffusion theory and the field plus diffusion empiricism were in excellent agreement with the measurements. Field theory was in good agreement for dimensionless fields greater than 10, and diffusion theory significantly underestimated charge for the range of dimensionless fields that were studied.<>
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