Advanced low temperature metal hydride materials for low temperature proton exchange membrane fuel cell application

Magister Scientiae - MSc === Energy is one of the basic needs of human beings and is extremely crucial for continued development of human life. Our work, leisure and our economic, social and physical welfare all depend on the sufficient, uninterrupted supply of energy. Therefore, it is essential to...

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Main Author: Ntsendwana, Bulelwa
Other Authors: Lototskyy, Mykhaylo
Language:en
Published: University of the Western Cape 2014
Subjects:
Online Access:http://hdl.handle.net/11394/2582
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spelling ndltd-netd.ac.za-oai-union.ndltd.org-uwc-oai-etd.uwc.ac.za-11394-25822017-08-02T04:00:16Z Advanced low temperature metal hydride materials for low temperature proton exchange membrane fuel cell application Ntsendwana, Bulelwa Lototskyy, Mykhaylo Williams, M. Dept. of Chemistry Faculty of Science Hydrogen energy Polymer Exchange Membrane Fuel Cell Solid state hydrogen storage Metal hydrides AB5 hydride-forming alloy Ce-substituted LaNi5 Surface modification Kinetics Thermodynamics Pressure-Composition Isotherm Thermal conductivity Heat and Mass transfer Magister Scientiae - MSc Energy is one of the basic needs of human beings and is extremely crucial for continued development of human life. Our work, leisure and our economic, social and physical welfare all depend on the sufficient, uninterrupted supply of energy. Therefore, it is essential to provide adequate and affordable energy for improving human welfare and raising living standards. Global concern over environmental climate change linked to fossil fuel consumption has increased pressure to generate power from renewable sources [1]. Although substantial advances in renewable energy technologies have been made, significant challenges remain in developing integrated renewable energy systems due primarily to mismatch between load demand and source capabilities [2]. The output from renewable energy sources such as photo-voltaic, wind, tidal, and micro-hydro fluctuate on an hourly, daily, and seasonal basis. As a result, these devices are not well suited for directly powering loads that require a uniform and uninterrupted supply of input energy. South Africa 2014-01-16T10:16:27Z 2011/06/07 09:26 2011/06/07 2014-01-16T10:16:27Z 2010 Thesis http://hdl.handle.net/11394/2582 en University of the Western Cape University of the Western Cape
collection NDLTD
language en
sources NDLTD
topic Hydrogen energy
Polymer Exchange Membrane Fuel Cell
Solid state hydrogen storage
Metal hydrides
AB5 hydride-forming alloy
Ce-substituted LaNi5
Surface modification
Kinetics
Thermodynamics
Pressure-Composition Isotherm
Thermal conductivity
Heat and Mass transfer
spellingShingle Hydrogen energy
Polymer Exchange Membrane Fuel Cell
Solid state hydrogen storage
Metal hydrides
AB5 hydride-forming alloy
Ce-substituted LaNi5
Surface modification
Kinetics
Thermodynamics
Pressure-Composition Isotherm
Thermal conductivity
Heat and Mass transfer
Ntsendwana, Bulelwa
Advanced low temperature metal hydride materials for low temperature proton exchange membrane fuel cell application
description Magister Scientiae - MSc === Energy is one of the basic needs of human beings and is extremely crucial for continued development of human life. Our work, leisure and our economic, social and physical welfare all depend on the sufficient, uninterrupted supply of energy. Therefore, it is essential to provide adequate and affordable energy for improving human welfare and raising living standards. Global concern over environmental climate change linked to fossil fuel consumption has increased pressure to generate power from renewable sources [1]. Although substantial advances in renewable energy technologies have been made, significant challenges remain in developing integrated renewable energy systems due primarily to mismatch between load demand and source capabilities [2]. The output from renewable energy sources such as photo-voltaic, wind, tidal, and micro-hydro fluctuate on an hourly, daily, and seasonal basis. As a result, these devices are not well suited for directly powering loads that require a uniform and uninterrupted supply of input energy. === South Africa
author2 Lototskyy, Mykhaylo
author_facet Lototskyy, Mykhaylo
Ntsendwana, Bulelwa
author Ntsendwana, Bulelwa
author_sort Ntsendwana, Bulelwa
title Advanced low temperature metal hydride materials for low temperature proton exchange membrane fuel cell application
title_short Advanced low temperature metal hydride materials for low temperature proton exchange membrane fuel cell application
title_full Advanced low temperature metal hydride materials for low temperature proton exchange membrane fuel cell application
title_fullStr Advanced low temperature metal hydride materials for low temperature proton exchange membrane fuel cell application
title_full_unstemmed Advanced low temperature metal hydride materials for low temperature proton exchange membrane fuel cell application
title_sort advanced low temperature metal hydride materials for low temperature proton exchange membrane fuel cell application
publisher University of the Western Cape
publishDate 2014
url http://hdl.handle.net/11394/2582
work_keys_str_mv AT ntsendwanabulelwa advancedlowtemperaturemetalhydridematerialsforlowtemperatureprotonexchangemembranefuelcellapplication
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