IMPROVEMENT OF THERMOELECTRIC BASED ATMOSPHERIC WATER GENERATOR USING NANOSTRUCTURED SUPERHYDROPHOBIC SURFACE

Water scarcity has been one of the substantial issues for upcoming years even though water is considered one of the most abundant molecules on the earth. One of the technologies that can be utilized to overcome this global issue is the atmospheric water generator (AWG) which converts water vapor fro...

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Main Author: Pratama Wahab, Fajar
Format: Final Project
Language:Indonesia
Online Access:https://digilib.itb.ac.id/gdl/view/69009
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Institution: Institut Teknologi Bandung
Language: Indonesia
id id-itb.:69009
spelling id-itb.:690092022-09-19T21:25:58ZIMPROVEMENT OF THERMOELECTRIC BASED ATMOSPHERIC WATER GENERATOR USING NANOSTRUCTURED SUPERHYDROPHOBIC SURFACE Pratama Wahab, Fajar Indonesia Final Project Atmospheric water generator, superhydrophobic surface, condensation, wettability INSTITUT TEKNOLOGI BANDUNG https://digilib.itb.ac.id/gdl/view/69009 Water scarcity has been one of the substantial issues for upcoming years even though water is considered one of the most abundant molecules on the earth. One of the technologies that can be utilized to overcome this global issue is the atmospheric water generator (AWG) which converts water vapor from air to its liquid phase by applying a condensation process. There are a few ways to produce a cold surface for promoting the condensation process, and thermoelectric cooling is one of them. A thermoelectric cooler has many advantages such as being portable and reliable. However, thermoelectric cooling-based AWG technology has several downsides such as a low water harvesting rate. To overcome this drawback, the condensation mode on the condensation surface can be improved. Dropwise condensation mode is preferred in atmospheric water generators due to the high heat transfer rate. One of the methods to promote dropwise condensation is by modifying the condensation surface to be superhydrophobic. This research aims to improve the performance of a thermoelectric cooling-based atmospheric water generator by implementing a nanostructured superhydrophobic surface as its condensation surface. The performance will be compared to an atmospheric water generator with polished copper as its condensation surface. The results show that the superhydrophobic condensation surface has a higher water harvesting rate and lower unit power consumption. text
institution Institut Teknologi Bandung
building Institut Teknologi Bandung Library
continent Asia
country Indonesia
Indonesia
content_provider Institut Teknologi Bandung
collection Digital ITB
language Indonesia
description Water scarcity has been one of the substantial issues for upcoming years even though water is considered one of the most abundant molecules on the earth. One of the technologies that can be utilized to overcome this global issue is the atmospheric water generator (AWG) which converts water vapor from air to its liquid phase by applying a condensation process. There are a few ways to produce a cold surface for promoting the condensation process, and thermoelectric cooling is one of them. A thermoelectric cooler has many advantages such as being portable and reliable. However, thermoelectric cooling-based AWG technology has several downsides such as a low water harvesting rate. To overcome this drawback, the condensation mode on the condensation surface can be improved. Dropwise condensation mode is preferred in atmospheric water generators due to the high heat transfer rate. One of the methods to promote dropwise condensation is by modifying the condensation surface to be superhydrophobic. This research aims to improve the performance of a thermoelectric cooling-based atmospheric water generator by implementing a nanostructured superhydrophobic surface as its condensation surface. The performance will be compared to an atmospheric water generator with polished copper as its condensation surface. The results show that the superhydrophobic condensation surface has a higher water harvesting rate and lower unit power consumption.
format Final Project
author Pratama Wahab, Fajar
spellingShingle Pratama Wahab, Fajar
IMPROVEMENT OF THERMOELECTRIC BASED ATMOSPHERIC WATER GENERATOR USING NANOSTRUCTURED SUPERHYDROPHOBIC SURFACE
author_facet Pratama Wahab, Fajar
author_sort Pratama Wahab, Fajar
title IMPROVEMENT OF THERMOELECTRIC BASED ATMOSPHERIC WATER GENERATOR USING NANOSTRUCTURED SUPERHYDROPHOBIC SURFACE
title_short IMPROVEMENT OF THERMOELECTRIC BASED ATMOSPHERIC WATER GENERATOR USING NANOSTRUCTURED SUPERHYDROPHOBIC SURFACE
title_full IMPROVEMENT OF THERMOELECTRIC BASED ATMOSPHERIC WATER GENERATOR USING NANOSTRUCTURED SUPERHYDROPHOBIC SURFACE
title_fullStr IMPROVEMENT OF THERMOELECTRIC BASED ATMOSPHERIC WATER GENERATOR USING NANOSTRUCTURED SUPERHYDROPHOBIC SURFACE
title_full_unstemmed IMPROVEMENT OF THERMOELECTRIC BASED ATMOSPHERIC WATER GENERATOR USING NANOSTRUCTURED SUPERHYDROPHOBIC SURFACE
title_sort improvement of thermoelectric based atmospheric water generator using nanostructured superhydrophobic surface
url https://digilib.itb.ac.id/gdl/view/69009
_version_ 1822278375081771008