Catalytic performance of a hydrogen fuel cell with platinum nanomaterials-coated gas diffusion layer

The synthesis of platinum nanomaterials was done using Horizontal Vapor Phase Crystal (HVPC) growth technique for hydrogen fuel cell application. Thirty five milligrams of platinum powder with 99.99% purity was used in the synthesis. Growth temperature was set to 8000C, 10000C and 12000C, growth tim...

Full description

Saved in:
Bibliographic Details
Main Author: Monserrat, Richard Centilles
Format: text
Language:English
Published: Animo Repository 2012
Online Access:https://animorepository.dlsu.edu.ph/etd_masteral/4290
Tags: Add Tag
No Tags, Be the first to tag this record!
Institution: De La Salle University
Language: English
id oai:animorepository.dlsu.edu.ph:etd_masteral-11128
record_format eprints
spelling oai:animorepository.dlsu.edu.ph:etd_masteral-111282024-08-09T05:17:19Z Catalytic performance of a hydrogen fuel cell with platinum nanomaterials-coated gas diffusion layer Monserrat, Richard Centilles The synthesis of platinum nanomaterials was done using Horizontal Vapor Phase Crystal (HVPC) growth technique for hydrogen fuel cell application. Thirty five milligrams of platinum powder with 99.99% purity was used in the synthesis. Growth temperature was set to 8000C, 10000C and 12000C, growth times were 10 hours and 12 hours with ramp time was set to 60 minutes. Characterization of platinum nanomaterials was done using Scanning electron Microscope (SEM) and Energy Dispersive X-ray (EDX). SEM was used to investigate the surface morphology and EDX was used to determine the elemental composition of platinum nanomaterials deposited in the substrate. Results show that platinum nanomaterials with diameter less than 100 nm are dispersed into substrate. The optimum result can be done at growth temperatures of 10000C and 12000C and growth times of 10 hrs and 12 hrs. Synthesized platinum nanomaterials are used for hydrogen fuel cell application. This study found out that 0.93 V off-voltage can be produced by hydrogen fuel cell with platinum nanomaterials. When it is connected to a propeller (2.3 ohms), hydrogen fuel cell can produced 0.76 V. This study varied the oxygen supplied to hydrogen fuel cell with platinum nanomaterials. It was found out that the hydrogen fuel cell with platinum nanomaterials only produced 0.47 V when supplied by ambient air. The voltage time graph for hydrogen fuel vi De La Salle University cell with platinum nanomaterials was utilized to determine the Faraday efficiency. Result shows that hydrogen fuel cell with platinum nanomaterials has Faraday Efficiency of 48.61%. This study further proves that HPVC growth technique is capable of producing platinum nanomaterials. This study is also in line with others in concluding that platinum nanowires used as catalyst in hydrogen fuel cell give significant effect to the production of voltage. 2012-01-01T08:00:00Z text https://animorepository.dlsu.edu.ph/etd_masteral/4290 Master's Theses English Animo Repository
institution De La Salle University
building De La Salle University Library
continent Asia
country Philippines
Philippines
content_provider De La Salle University Library
collection DLSU Institutional Repository
language English
description The synthesis of platinum nanomaterials was done using Horizontal Vapor Phase Crystal (HVPC) growth technique for hydrogen fuel cell application. Thirty five milligrams of platinum powder with 99.99% purity was used in the synthesis. Growth temperature was set to 8000C, 10000C and 12000C, growth times were 10 hours and 12 hours with ramp time was set to 60 minutes. Characterization of platinum nanomaterials was done using Scanning electron Microscope (SEM) and Energy Dispersive X-ray (EDX). SEM was used to investigate the surface morphology and EDX was used to determine the elemental composition of platinum nanomaterials deposited in the substrate. Results show that platinum nanomaterials with diameter less than 100 nm are dispersed into substrate. The optimum result can be done at growth temperatures of 10000C and 12000C and growth times of 10 hrs and 12 hrs. Synthesized platinum nanomaterials are used for hydrogen fuel cell application. This study found out that 0.93 V off-voltage can be produced by hydrogen fuel cell with platinum nanomaterials. When it is connected to a propeller (2.3 ohms), hydrogen fuel cell can produced 0.76 V. This study varied the oxygen supplied to hydrogen fuel cell with platinum nanomaterials. It was found out that the hydrogen fuel cell with platinum nanomaterials only produced 0.47 V when supplied by ambient air. The voltage time graph for hydrogen fuel vi De La Salle University cell with platinum nanomaterials was utilized to determine the Faraday efficiency. Result shows that hydrogen fuel cell with platinum nanomaterials has Faraday Efficiency of 48.61%. This study further proves that HPVC growth technique is capable of producing platinum nanomaterials. This study is also in line with others in concluding that platinum nanowires used as catalyst in hydrogen fuel cell give significant effect to the production of voltage.
format text
author Monserrat, Richard Centilles
spellingShingle Monserrat, Richard Centilles
Catalytic performance of a hydrogen fuel cell with platinum nanomaterials-coated gas diffusion layer
author_facet Monserrat, Richard Centilles
author_sort Monserrat, Richard Centilles
title Catalytic performance of a hydrogen fuel cell with platinum nanomaterials-coated gas diffusion layer
title_short Catalytic performance of a hydrogen fuel cell with platinum nanomaterials-coated gas diffusion layer
title_full Catalytic performance of a hydrogen fuel cell with platinum nanomaterials-coated gas diffusion layer
title_fullStr Catalytic performance of a hydrogen fuel cell with platinum nanomaterials-coated gas diffusion layer
title_full_unstemmed Catalytic performance of a hydrogen fuel cell with platinum nanomaterials-coated gas diffusion layer
title_sort catalytic performance of a hydrogen fuel cell with platinum nanomaterials-coated gas diffusion layer
publisher Animo Repository
publishDate 2012
url https://animorepository.dlsu.edu.ph/etd_masteral/4290
_version_ 1808616417992376320