Evaluation of Drying Air Conditions for Antiozonant Wax Drying Process in the Spray Drying Tower

Q4 Chemical Engineering ASEAN Journal of Chemical Engineering Pub Date : 2021-12-30 DOI:10.22146/ajche.64352
M. Christwardana, Ifa Miftahushudury
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Abstract

The drying technique of Antiozonant Wax (AOW) using drying air in the spray drying tower has a considerable effect on the produced AOW powder. In this study, the drying air flow rate was measured in such a way that AOW can transform into a powder with a size of 800 mesh. The diameter and height of the spray drying tower are 1 and 6 m, respectively. Meanwhile, the AOW flow rate to the spray drying tower varies from 100 kg/hour to 500 kg/hour. The intake AOW temperature was 70 °C and at the outlet was 40 °C, while the drying air temperatures in and out of the spray drying tower were 30 and 55 °C, respectively. From the calculation results, the flow rate of the drying air is directly proportional to the flow rate of the AOW into the spray drying tower but inversely proportional to the speed of the AOW powder down the spray drying tower. In the meantime, the drying period for AOW to become a powder is between 1.033 – 1.279 s, not significantly different. It gives insight into the need to dry air in the spray drying tower configuration so that the findings will conform to the predetermined requirements.
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喷雾干燥塔防臭氧蜡干燥工艺干燥空气条件评价
利用喷雾干燥塔内的干燥空气干燥防臭氧蜡(AOW)的工艺对生产的防臭氧蜡粉有相当大的影响。在本研究中,通过测量干燥空气流速,AOW可以转化为800目大小的粉末。喷雾干燥塔直径为1米,高度为6米。同时,AOW进入喷雾干燥塔的流量为100 ~ 500 kg/h。进风口温度为70℃,风口温度为40℃,喷雾干燥塔进出口干燥空气温度分别为30℃和55℃。从计算结果来看,干燥空气的流量与AOW进入喷雾干燥塔的流量成正比,而与AOW粉料下喷干燥塔的速度成反比。同时,AOW成粉的干燥时间在1.033 ~ 1.279 s之间,差异不显著。它提供了洞察需要干燥的空气在喷雾干燥塔配置,使调查结果将符合预定的要求。
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来源期刊
ASEAN Journal of Chemical Engineering
ASEAN Journal of Chemical Engineering Chemical Engineering-Chemical Engineering (all)
CiteScore
1.00
自引率
0.00%
发文量
15
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