DocumentCode
1535533
Title
Fuel cell status: 1996
Author
Hirschenhofer, John H.
Author_Institution
Parsons Power Group Inc., Reading, PA, USA
Volume
12
Issue
3
fYear
1997
fDate
3/1/1997 12:00:00 AM
Firstpage
23
Lastpage
28
Abstract
The technology of fuel cells is heating up. A world that, ten years ago, was unaware of the concept can now witness approximately 200 fuel cell units operating in 15 countries. Energy planners and decision makers are becoming aware that, in addition to a continual increase in installations, the reliability of early commercial units is outstanding and the cost is dropping. They have begun to ask whether fuel cells might fit into their future. While the fuel cell concept is simple, determining which type of fuel cell to consider may prove taxing. The multiplicity of fuel cells and their development programs, coupled with the amount of subject material and claims-versus-reality, may seem overwhelming. Fuel cell commercialization activities in North America are the focus of five manufacturers that are developing four types [fuel cells are typed by electrolyte: the 200°C phosphoric acid (PAFC); the 80°C proton exchange membrane (PEM); the 650°C molten carbonate (MCFC); and the 1,000°C solid oxide (SOFC) fuel cells]. Each fuel cell promises the attractive combination of fairly high efficiency and superior environmental performance compared to the presently available fossil-fueled electric generation technologies. As a result, fuel cells are particularly easy to site. There are additional advantages such as: excellent availability; electrical VAR control; quick ramp rate; remote/unattended operation; and redundancy when multiple units are installed. After earlier success in space, fuel cells are being applied to the commercial sector as on-site cogeneration units mostly fueled by natural gas. They are being considered for larger distributed generators (natural gas) and for vehicular power plants (methanol)
Keywords
cost-benefit analysis; economics; fuel cell power plants; fuel cells; power system planning; SOFC; availability; commercialization; costs; efficiency; environmental performance; fuel cells; molten carbonate cell; on-site cogeneration units; phosphoric acid cell; proton exchange membrane; reliability; Commercialization; Costs; Fuel cells; Heating; Manufacturing; Natural gas; North America; Power generation; Protons; Space technology;
fLanguage
English
Journal_Title
Aerospace and Electronic Systems Magazine, IEEE
Publisher
ieee
ISSN
0885-8985
Type
jour
DOI
10.1109/62.579205
Filename
579205
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