Effect of Renewable Energy and Water Nanofluids in Improving the Performance of Passive Solar Distillation

IF 0.9 4区 化学 Q4 CHEMISTRY, ANALYTICAL
T. Elango, K. Hemarana, K. Kalidasa Murugavel, Muttineni Sasidhar
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引用次数: 0

Abstract

One of the major problems which the world faces today is water scarcity, as every life needs it for their day-to-day activity. Pollution and salinity are the two major causes of most waterbodies being unfit for use. Removing pollutants or salt from water became essential for overcoming the water shortage. Desalination technology is being used to achieve this, but the major disadvantage is its lower production. Applying solar energy and nanofluids may tackle the problem and increase the production. In this work, some physical and chemical parameters, in particular isoelectric point (pH), total dissolved solids (TDS), electric conductivity (EC), chloride (Cl–), fluoride (F–), iron(II) (Fe2+) content, were studied before and after desalination. Also, the influence of various water nanofluids (WNF) on increasing the output of glass-made double slope solar stills was studied. Physical and chemical parameter analysis revealed a reduction in values after desalination. Single and double-basin glass solar stills of 0.81 m2 basin area were fabricated, and the experiments were conducted at Kovilpatti. The experiments were carried out at a depth of 1 cm with borewell saline water and nanofluids under insulated conditions. A maximum productivity of 4350 mL per 0.81 m2/day (5405 mL/m2/day) was obtained while using Al2O3 nanofluid in a double basin glass solar still, which was higher than that obtained using water, SnO2 and ZnO WNF. This confirms the efficiency of Al2O3 aqueous nanofluid, which yielded more distillate than other two nanofluids used.

Abstract Image

可再生能源和水纳米流体对提高被动式太阳能蒸馏性能的影响
当今世界面临的主要问题之一是缺水,因为每个生命的日常活动都需要水。污染和盐度是大多数水体不适合使用的两个主要原因。从水中去除污染物或盐分对于克服水资源短缺至关重要。目前正在使用海水淡化技术来实现这一目标,但其主要缺点是产量较低。应用太阳能和纳米流体可以解决这一问题,提高产量。在这项工作中,一些物理和化学参数,特别是等电点(pH),总溶解固体(TDS),电导率(EC),氯化物(Cl -),氟化物(F -),铁(II) (Fe2+)含量,在脱盐前后进行了研究。此外,还研究了不同水纳米流体对提高玻璃制双斜面太阳能蒸馏器产量的影响。物理和化学参数分析表明,脱盐后的值有所降低。制作了盆面积为0.81 m2的单盆和双盆玻璃太阳蒸馏器,并在Kovilpatti进行了实验。实验在绝缘条件下使用井盐水和纳米流体在1 cm深度下进行。在双盆玻璃太阳能蒸馏器中使用Al2O3纳米流体的最大产率为4350 mL/ 0.81 m2/day (5405 mL/m2/day),高于使用水、SnO2和ZnO WNF的产率。这证实了Al2O3水性纳米流体的效率,它比其他两种纳米流体产生更多的馏出物。
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来源期刊
Journal of Water Chemistry and Technology
Journal of Water Chemistry and Technology CHEMISTRY, APPLIED-CHEMISTRY, ANALYTICAL
自引率
0.00%
发文量
51
审稿时长
>12 weeks
期刊介绍: Journal of Water Chemistry and Technology focuses on water and wastewater treatment, water pollution monitoring, water purification, and similar topics. The journal publishes original scientific theoretical and experimental articles in the following sections: new developments in the science of water; theoretical principles of water treatment and technology; physical chemistry of water treatment processes; analytical water chemistry; analysis of natural and waste waters; water treatment technology and demineralization of water; biological methods of water treatment; and also solicited critical reviews summarizing the latest findings. The journal welcomes manuscripts from all countries in the English or Ukrainian language. All manuscripts are peer-reviewed.
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