Hydrogen production from biomass
Hydrogen can be produced from biomass; this hydrogen is called biohydrogen. Biohydrogen produced in Western Canada can partially contribute to meeting the demand for hydrogen needed for bitumen upgrading. Gasification and pyrolysis are two promising pathways for producing biohydrogen in a large-sc...
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ndltd-LACETR-oai-collectionscanada.gc.ca-AEU.10048-3982012-07-03T12:11:11ZKumar, Amit (Mechanical Engineering)Sarkar, Susanjib2009-05-05T21:21:48Z2009-05-05T21:21:48Z2009-05-05T21:21:48Zhttp://hdl.handle.net/10048/398Hydrogen can be produced from biomass; this hydrogen is called biohydrogen. Biohydrogen produced in Western Canada can partially contribute to meeting the demand for hydrogen needed for bitumen upgrading. Gasification and pyrolysis are two promising pathways for producing biohydrogen in a large-scale plant. Syngas, produced from the gasification of biomass, and bio-oil, produced from fast pyrolysis of biomass, can be steam reformed to produce biohydrogen. The cost of biohydrogen delivered by pipeline to a distance of 500 km is $2.20 per kg of H2, assuming that a plant utilizes 2000 dry tonnes of whole-tree biomass per day processing it in a Battelle Columbus Laboratory (BCL) gasifier. For forest residue- and straw-based biohydrogen plants the values are similar: $2.19 and $2.31 per kg of H2, respectively. Maximum economy of scale benefits are realized for biohydrogen production plants capable of processing 2000 and 3000 dry tonnes per day using BCL and GTI (Gas Technology Institute) gasification technology, respectively. The cost of biohydrogen from fast pyrolysis ($2.47 per kg of H2 from a 2000 dry tonne per day plant), using forest residue as the feedstock, is higher than the cost of biohydrogen produced by gasification. Carbon credits of about $120-$140 per tonne of CO2 are required to make biohydrogen competitive with natural-gas-based hydrogen.1138067 bytesapplication/pdfen_USSarkar, Susanjib & Kumar, Amit (2009). Transactions of the ASABE 52(2): 519-530.BiohydrogenTechno-economic assessmentGasificationPyrolysisWhole forestForest residueStrawOptimal plant sizeProduction costGreenhouse gas emissionCarbon creditsHydrogen production from biomassThesisMaster of ScienceMaster'sDepartment of Mechanical EngineeringUniversity of Alberta2009-11Kumar, Amit (Mechanical Engineering)Lipsett, Michael (Mechanical Engineering)Bressler, David (Agricultural, Food, & Nutritional Science) |
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Biohydrogen Techno-economic assessment Gasification Pyrolysis Whole forest Forest residue Straw Optimal plant size Production cost Greenhouse gas emission Carbon credits |
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Biohydrogen Techno-economic assessment Gasification Pyrolysis Whole forest Forest residue Straw Optimal plant size Production cost Greenhouse gas emission Carbon credits Sarkar, Susanjib Hydrogen production from biomass |
description |
Hydrogen can be produced from biomass; this hydrogen is called biohydrogen. Biohydrogen produced in Western Canada can partially contribute to meeting the demand for hydrogen needed for bitumen upgrading. Gasification and pyrolysis are two promising pathways for producing biohydrogen in a large-scale plant. Syngas, produced from the gasification of biomass, and bio-oil, produced from fast pyrolysis of biomass, can be steam reformed to produce biohydrogen. The cost of biohydrogen delivered by pipeline to a distance of 500 km is $2.20 per kg of H2, assuming that a plant utilizes 2000 dry tonnes of whole-tree biomass per day processing it in a Battelle Columbus Laboratory (BCL) gasifier. For forest residue- and straw-based biohydrogen plants the values are similar: $2.19 and $2.31 per kg of H2, respectively. Maximum economy of scale benefits are realized for biohydrogen production plants capable of processing 2000 and 3000 dry tonnes per day using BCL and GTI (Gas Technology Institute) gasification technology, respectively. The cost of biohydrogen from fast pyrolysis ($2.47 per kg of H2 from a 2000 dry tonne per day plant), using forest residue as the feedstock, is higher than the cost of biohydrogen produced by gasification. Carbon credits of about $120-$140 per tonne of CO2 are required to make biohydrogen competitive with natural-gas-based hydrogen. |
author2 |
Kumar, Amit (Mechanical Engineering) |
author_facet |
Kumar, Amit (Mechanical Engineering) Sarkar, Susanjib |
author |
Sarkar, Susanjib |
author_sort |
Sarkar, Susanjib |
title |
Hydrogen production from biomass |
title_short |
Hydrogen production from biomass |
title_full |
Hydrogen production from biomass |
title_fullStr |
Hydrogen production from biomass |
title_full_unstemmed |
Hydrogen production from biomass |
title_sort |
hydrogen production from biomass |
publishDate |
2009 |
url |
http://hdl.handle.net/10048/398 |
work_keys_str_mv |
AT sarkarsusanjib hydrogenproductionfrombiomass |
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1716391985995055104 |