Solar Desalination Unit Coupled with a Novel Humidifier

E. El-Said, M. Omara, M. Dahab, Gamal B. Abdelaziz
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引用次数: 25

Abstract

Abstract The solar desalination system is experimentally investigated according to humidification dehumidification methodology (HDH) with hot air stream flow and heat pump as a condensation unit. The effects of high frequency ultrasound atomizer number, water height and hot air stream flow rate on distillate yield are studied. The results illustrated that increasing of atomizer number and decreasing water height increases the daily distillate production. The maximum daily freshwater productivity occurred at six atomizer number with an increase of 38.6% and 115% compared with atomizer number four and two, respectively. Furthermore, water height at 1 cm is the most efficient with an increment of 16% and 28.6% compared with 2 cm and 3 cm, respectively. The optimum hot air stream flow rate is 0.011 kg/s with an increment of 36.88%, 31.07%, 6.48%, 11.72%, 23.52% and 38.60% compared with 0.009, 0.010, 0.013, 0.014, 0.016, and 0.017 kg/s, flow rates, respectively. The air mass flow rate has a significant impact on system performance. The maximum gain output ratio (GOR) of the system is about 1.54. The daily production reaches 7.72 kg∖day, the system energy efficiency is 33.84% and 1.43% exergy efficiency the estimated cost is 0.0112 US$/L.
结合新型加湿器的太阳能海水淡化装置
摘要采用热空气流加热泵作为冷凝装置,对太阳能海水淡化系统进行了加湿除湿方法(HDH)的实验研究。研究了高频超声雾化器个数、水高度和热风流量对馏分得率的影响。结果表明,雾化器数量的增加和水高度的降低均可提高馏分日产量。雾化器数量为6时,淡水日产量最大,分别比雾化器数量为4和2时提高38.6%和115%。与2 cm和3 cm的水高相比,1 cm的水高效率最高,分别增加16%和28.6%。与0.009、0.010、0.013、0.014、0.016、0.017 kg/s的流量相比,最优热风流量为0.011 kg/s,分别增加36.88%、31.07%、6.48%、11.72%、23.52%和38.60%。空气质量流量对系统性能有重要影响。系统的最大增益输出比(GOR)约为1.54。日产量达到7.72 kg ×天,系统能效为33.84%,火用效率为1.43%,估算成本为0.0112美元/升。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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