Thermodynamics and Transport Phenomena in High Temperature Steam Electrolysis CellsSource: Journal of Heat Transfer:;2012:;volume( 134 ):;issue: 003::page 31017Author:James E. O’Brien
DOI: 10.1115/1.4005132Publisher: The American Society of Mechanical Engineers (ASME)
Abstract: Hydrogen can be produced from water splitting with relatively high efficiency using high temperature electrolysis. This technology makes use of solid-oxide cells, running in the electrolysis mode to produce hydrogen from steam, while consuming electricity and high temperature process heat. The overall thermal-to-hydrogen efficiency for high temperature electrolysis can be as high as 50%, which is about double the overall efficiency of conventional low-temperature electrolysis. Current large-scale hydrogen production is based almost exclusively on steam reforming of methane, a method that consumes a precious fossil fuel while emitting carbon dioxide to the atmosphere. An overview of high temperature electrolysis technology will be presented, including basic thermodynamics, experimental methods, heat and mass transfer phenomena, and computational fluid dynamics modeling.
keyword(s): Thermodynamics , Heat , Temperature , Electrolysis , Hydrogen , Steam , High temperature steam , Water , Electric potential , Hydrogen production , High temperature , Solid oxide fuel cells AND Mass transfer ,
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| contributor author | James E. O’Brien | |
| date accessioned | 2017-05-09T00:52:26Z | |
| date available | 2017-05-09T00:52:26Z | |
| date copyright | March, 2012 | |
| date issued | 2012 | |
| identifier issn | 0022-1481 | |
| identifier other | JHTRAO-27935#031017_1.pdf | |
| identifier uri | http://yetl.yabesh.ir/yetl/handle/yetl/149525 | |
| description abstract | Hydrogen can be produced from water splitting with relatively high efficiency using high temperature electrolysis. This technology makes use of solid-oxide cells, running in the electrolysis mode to produce hydrogen from steam, while consuming electricity and high temperature process heat. The overall thermal-to-hydrogen efficiency for high temperature electrolysis can be as high as 50%, which is about double the overall efficiency of conventional low-temperature electrolysis. Current large-scale hydrogen production is based almost exclusively on steam reforming of methane, a method that consumes a precious fossil fuel while emitting carbon dioxide to the atmosphere. An overview of high temperature electrolysis technology will be presented, including basic thermodynamics, experimental methods, heat and mass transfer phenomena, and computational fluid dynamics modeling. | |
| publisher | The American Society of Mechanical Engineers (ASME) | |
| title | Thermodynamics and Transport Phenomena in High Temperature Steam Electrolysis Cells | |
| type | Journal Paper | |
| journal volume | 134 | |
| journal issue | 3 | |
| journal title | Journal of Heat Transfer | |
| identifier doi | 10.1115/1.4005132 | |
| journal fristpage | 31017 | |
| identifier eissn | 1528-8943 | |
| keywords | Thermodynamics | |
| keywords | Heat | |
| keywords | Temperature | |
| keywords | Electrolysis | |
| keywords | Hydrogen | |
| keywords | Steam | |
| keywords | High temperature steam | |
| keywords | Water | |
| keywords | Electric potential | |
| keywords | Hydrogen production | |
| keywords | High temperature | |
| keywords | Solid oxide fuel cells AND Mass transfer | |
| tree | Journal of Heat Transfer:;2012:;volume( 134 ):;issue: 003 | |
| contenttype | Fulltext |