Seddighi Mahdi, Hejazi Sayyed Mahdi
Department of Textile Engineering, Isfahan University of Technology, Isfahan 84156-83111, Iran.
Department of Textile Engineering, Isfahan University of Technology, Isfahan 84156-83111, Iran.
Mar Pollut Bull. 2015 Jul 15;96(1-2):286-93. doi: 10.1016/j.marpolbul.2015.05.011. Epub 2015 May 8.
Oil is principally one of the most important energy sources in the world. However, as long as oil is explored and transported for being used, there will be the risk of the spillage into the marine environment. The use of technical textiles, i.e. fibrous beds, is a conventional separation technique for oil/water emulsion since it is efficient and easy to design. In this paper, the recovery of oil by technical textiles was mathematically modeled based on the structural parameters of textile and the capillary mechanism. Eleven types of commercial technical textiles with different properties were prepared for the experimental program. The experimental design included fiber type (polypropylene and polyester), fabric type (woven and/or nonwoven), fabric thickness and fabric areal density. Consequently, the absorption capacities of different technical textile samples were derived by the use of theoretical and experimental methods. The results show that there is a well fitness between theoretical outputs and experimental data.
石油主要是世界上最重要的能源之一。然而,只要石油被开采和运输以供使用,就存在泄漏到海洋环境中的风险。使用工业用纺织品,即纤维床,是一种传统的油/水乳液分离技术,因为它效率高且易于设计。本文基于纺织品的结构参数和毛细作用机理,对工业用纺织品回收石油进行了数学建模。制备了11种具有不同性能的商用工业用纺织品用于实验项目。实验设计包括纤维类型(聚丙烯和聚酯)、织物类型(机织和/或非织造)、织物厚度和织物面密度。因此,通过理论和实验方法得出了不同工业用纺织品样品的吸收能力。结果表明,理论输出与实验数据之间具有良好的拟合度。