Hybrid solar still as a co-generative system and desalination system - An experimental performance evaluation
An experimental evaluation of double basin hybrid solar still has been carried out as co-generative system and desalination system. The upper basin has dual-slope glass cover whereas lower basin has conventional single-slope glass cover. In the experiment of hybrid solar still as co-generative syste...
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doaj-414ad8044b1d4ea082c49c7eb4d60c482021-07-01T04:36:00ZengElsevierCleaner Engineering and Technology2666-79082021-06-012100063Hybrid solar still as a co-generative system and desalination system - An experimental performance evaluationDhruvin Shukla0Kalpesh Modi1Department of Mechanical Engineering, Sarvajanik College of Engineering and Technology, Surat, 395001, Gujarat, India; Corresponding author.Department of Mechanical Engineering, Government Engineering College, Bhuj, 370001, Gujarat, IndiaAn experimental evaluation of double basin hybrid solar still has been carried out as co-generative system and desalination system. The upper basin has dual-slope glass cover whereas lower basin has conventional single-slope glass cover. In the experiment of hybrid solar still as co-generative system, mixture of 33% concentrated magnesium chloride and 40% concentrated calcium chloride was flown through upper basin. Whereas in lower basin, the saline water depth of 0.01 m was retained with 0.10% w/w concentration of Zinc Oxide nanoparticles. In experiment of hybrid solar still as desalination system, saline water was flown through upper basin and the 0.01 m depth of saline water without nanoparticles was sustained in the lower basin. Desorbed water of 1.17 L/m2 from the upper basin and distillate of 0.28 L/m2 from the lower basin was obtained when hybrid solar still was examined as co-generative system. Whereas distillate yield of 0.63 L/m2 and 0.21 L/m2 was obtained from the upper and lower basin when hybrid solar still was utilized as desalination system. The experimental results revealed that maximum efficiency of 29.96% was achieved for hybrid solar still as co-generative system and 11.65% as desalination system. The outcome elucidate that an increment of 1.70% in concentration of mixture was achieved for hybrid solar still as co-generative system, which imparts 0.14 kW/m2 of latent cooling load.http://www.sciencedirect.com/science/article/pii/S2666790821000239Liquid desiccantRegeneratorHybrid solar stillDesalinationNanoparticleSolar energy |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Dhruvin Shukla Kalpesh Modi |
spellingShingle |
Dhruvin Shukla Kalpesh Modi Hybrid solar still as a co-generative system and desalination system - An experimental performance evaluation Cleaner Engineering and Technology Liquid desiccant Regenerator Hybrid solar still Desalination Nanoparticle Solar energy |
author_facet |
Dhruvin Shukla Kalpesh Modi |
author_sort |
Dhruvin Shukla |
title |
Hybrid solar still as a co-generative system and desalination system - An experimental performance evaluation |
title_short |
Hybrid solar still as a co-generative system and desalination system - An experimental performance evaluation |
title_full |
Hybrid solar still as a co-generative system and desalination system - An experimental performance evaluation |
title_fullStr |
Hybrid solar still as a co-generative system and desalination system - An experimental performance evaluation |
title_full_unstemmed |
Hybrid solar still as a co-generative system and desalination system - An experimental performance evaluation |
title_sort |
hybrid solar still as a co-generative system and desalination system - an experimental performance evaluation |
publisher |
Elsevier |
series |
Cleaner Engineering and Technology |
issn |
2666-7908 |
publishDate |
2021-06-01 |
description |
An experimental evaluation of double basin hybrid solar still has been carried out as co-generative system and desalination system. The upper basin has dual-slope glass cover whereas lower basin has conventional single-slope glass cover. In the experiment of hybrid solar still as co-generative system, mixture of 33% concentrated magnesium chloride and 40% concentrated calcium chloride was flown through upper basin. Whereas in lower basin, the saline water depth of 0.01 m was retained with 0.10% w/w concentration of Zinc Oxide nanoparticles. In experiment of hybrid solar still as desalination system, saline water was flown through upper basin and the 0.01 m depth of saline water without nanoparticles was sustained in the lower basin. Desorbed water of 1.17 L/m2 from the upper basin and distillate of 0.28 L/m2 from the lower basin was obtained when hybrid solar still was examined as co-generative system. Whereas distillate yield of 0.63 L/m2 and 0.21 L/m2 was obtained from the upper and lower basin when hybrid solar still was utilized as desalination system. The experimental results revealed that maximum efficiency of 29.96% was achieved for hybrid solar still as co-generative system and 11.65% as desalination system. The outcome elucidate that an increment of 1.70% in concentration of mixture was achieved for hybrid solar still as co-generative system, which imparts 0.14 kW/m2 of latent cooling load. |
topic |
Liquid desiccant Regenerator Hybrid solar still Desalination Nanoparticle Solar energy |
url |
http://www.sciencedirect.com/science/article/pii/S2666790821000239 |
work_keys_str_mv |
AT dhruvinshukla hybridsolarstillasacogenerativesystemanddesalinationsystemanexperimentalperformanceevaluation AT kalpeshmodi hybridsolarstillasacogenerativesystemanddesalinationsystemanexperimentalperformanceevaluation |
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