填充床
微粒
污染物
高重力
超细粒子
环境科学
环境工程
电除尘器
洗涤器
空气污染
粒径
粒子(生态学)
废物管理
化学
传质
工程类
化学工程
色谱法
海洋学
食品科学
有机化学
发酵
地质学
作者
Kai-Yu Lin,Tse-Lun Chen,Yi‐Hung Chen,Pen‐Chi Chiang
标识
DOI:10.1016/j.psep.2020.02.012
摘要
The air pollutant emission related to the anthropogenic activities affecting the environment and human health was a critical problem. Fine or ultrafine particulate matters were the major air pollutant from the industries. Thus, the high-gravity technology has holistically been applied to the integrated air pollution control due to its advances of low land demand, high mass transfer rate, low economic cost and easy operation and maintenance. In this study, the fine particle removal using a co-current flow rotating packed bed (CF-RPB) was evaluated along with different key parameters, including high gravity factor and liquid-to-gas (L/G) ratio. The obtained results suggested that CF-RPB could improve the particle removal efficiency up to 99.75 % which was increased as the high gravity factor and L/G ratio increased. In this study, a theoretical model was developed to describe that the particle size of 0.1 μm accounted for the major concentration. Furthermore, the environmental benefit of different particle control technologies was evaluated using environmental cost accounting. The results indicated that the application of CF-RPB for particle emissions control performed greater economic feasibility than Venturi scrubber and baghouse filter. CF-RPB could also be applied to the particulate and gaseous air pollutants removal, which has more advances than the electrostatic precipitator.
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