Improvement of fuel cell efficiency by inlet actuations

In the present days where the need for energy in our daily life is ever growing, and the fast depleting of fossil fuel (main energy source) couple with the serious environmental effect it bring with it, an alternative ‘clean energy is needed. Fuel cell can carry out electrochemical reaction by takin...

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Main Author: Soh, Wei Chong.
Other Authors: Chan Siew Hwa
Format: Final Year Project
Language:English
Published: 2010
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Online Access:http://hdl.handle.net/10356/40493
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Institution: Nanyang Technological University
Language: English
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spelling sg-ntu-dr.10356-404932023-03-04T19:45:31Z Improvement of fuel cell efficiency by inlet actuations Soh, Wei Chong. Chan Siew Hwa Huang Xiaoyang School of Mechanical and Aerospace Engineering DRNTU::Engineering In the present days where the need for energy in our daily life is ever growing, and the fast depleting of fossil fuel (main energy source) couple with the serious environmental effect it bring with it, an alternative ‘clean energy is needed. Fuel cell can carry out electrochemical reaction by taking in Hydrogen as a fuel source, and oxygen from the atmosphere as reactant, to supply electric energy. Fuel cell has no moving parts which simplifies the manufacturing process and also will allow the cells to have longer operational periods. Since the output of an ideal fuel cell is pure water, the emissions are extremely low, makes them a good solution. This project focuses on Polymer Electrolyte Membrane Fuel Cells (PEMFC). The Proton Exchange Membrane (PEM) fuel cell uses a thin, permeable polymeric membrane as the electrolyte and platinum electrodes are used on either side of the membrane in order to catalyse the reaction. Compared to other electrolytes (require up to 1,000°C to operate effectively) PEMFCs operate at very low temperatures of about 80°C allowing rapid start-up. In addition, PEM fuel cells are often compact and lightweight units, hence, PEM units tend to be the best candidates for cars, buildings and smaller stationary applications. This project is to conduct an experimental study to investigate the possibility of improving the fuel cell efficiency through the oxygen supply inlet. An apparatus with a wind channel was designed and experimented on with fuel cell to monitor the performance of the fuel cell, vary under difference air supply conditions. One of the parameter been varied is the volume flow rate of the air supply. Process like sonochemistry is studied in order to research on how these technologies can be applied on fuel cell, to improve its performance. More research and further experiment can be carried out to monitor the performance of the fuel cell under difference conditions. Research on and development should be carried out on the feasibility of sonochemistry on fuel cell. Bachelor of Engineering (Mechanical Engineering) 2010-06-16T02:55:12Z 2010-06-16T02:55:12Z 2010 2010 Final Year Project (FYP) http://hdl.handle.net/10356/40493 en Nanyang Technological University 77 p. application/pdf
institution Nanyang Technological University
building NTU Library
continent Asia
country Singapore
Singapore
content_provider NTU Library
collection DR-NTU
language English
topic DRNTU::Engineering
spellingShingle DRNTU::Engineering
Soh, Wei Chong.
Improvement of fuel cell efficiency by inlet actuations
description In the present days where the need for energy in our daily life is ever growing, and the fast depleting of fossil fuel (main energy source) couple with the serious environmental effect it bring with it, an alternative ‘clean energy is needed. Fuel cell can carry out electrochemical reaction by taking in Hydrogen as a fuel source, and oxygen from the atmosphere as reactant, to supply electric energy. Fuel cell has no moving parts which simplifies the manufacturing process and also will allow the cells to have longer operational periods. Since the output of an ideal fuel cell is pure water, the emissions are extremely low, makes them a good solution. This project focuses on Polymer Electrolyte Membrane Fuel Cells (PEMFC). The Proton Exchange Membrane (PEM) fuel cell uses a thin, permeable polymeric membrane as the electrolyte and platinum electrodes are used on either side of the membrane in order to catalyse the reaction. Compared to other electrolytes (require up to 1,000°C to operate effectively) PEMFCs operate at very low temperatures of about 80°C allowing rapid start-up. In addition, PEM fuel cells are often compact and lightweight units, hence, PEM units tend to be the best candidates for cars, buildings and smaller stationary applications. This project is to conduct an experimental study to investigate the possibility of improving the fuel cell efficiency through the oxygen supply inlet. An apparatus with a wind channel was designed and experimented on with fuel cell to monitor the performance of the fuel cell, vary under difference air supply conditions. One of the parameter been varied is the volume flow rate of the air supply. Process like sonochemistry is studied in order to research on how these technologies can be applied on fuel cell, to improve its performance. More research and further experiment can be carried out to monitor the performance of the fuel cell under difference conditions. Research on and development should be carried out on the feasibility of sonochemistry on fuel cell.
author2 Chan Siew Hwa
author_facet Chan Siew Hwa
Soh, Wei Chong.
format Final Year Project
author Soh, Wei Chong.
author_sort Soh, Wei Chong.
title Improvement of fuel cell efficiency by inlet actuations
title_short Improvement of fuel cell efficiency by inlet actuations
title_full Improvement of fuel cell efficiency by inlet actuations
title_fullStr Improvement of fuel cell efficiency by inlet actuations
title_full_unstemmed Improvement of fuel cell efficiency by inlet actuations
title_sort improvement of fuel cell efficiency by inlet actuations
publishDate 2010
url http://hdl.handle.net/10356/40493
_version_ 1759854582643556352