JOURNAL ARTICLE

Hydrogen production from woody biomass gasification: a techno‐economic analysis

Abstract

Abstract Reductions in greenhouse gas emissions are necessary to slow global warming and decrease the likelihood of irreversible climate scenarios. There is thus an urgent need for low‐emissions fuels. This study conducted a techno‐economic analysis of two different industrial plant concepts for producing hydrogen from woody biomass. One was a large‐scale centralized 60 MW H2 option using dual fluidized bed gasification with CO 2 removal. The other was a small‐scale decentralized 1 MW H2 option using fixed‐bed gasification without CO 2 removal. Mass and energy balances were calculated by the process simulation software IPSEpro. Key performance indicators, including technical, economic, and environmental parameters, were derived. Overall energy efficiencies of 64.2 and 59.5% and hydrogen yields of 87 and 68 g H2 kg −1 BM.db were determined for hydrogen production by dual fluidized bed and fixed‐bed gasification, respectively. The levelized costs of hydrogen amounted to 5.6 and 15.0 € 2022 kg −1 H2 and agreed quite well with values from the literature. Flexible and decentralized heat, electricity, and hydrogen production based on fixed‐bed gasification within a multiproduct plant were also evaluated. The results show that the multiproduct plant could be economically feasible if at least 63% of the annual operating hours were dedicated to hydrogen production, and assuming a hydrogen selling price of 17.5 € 2022 kg −1 H2 in Austria. In conclusion, both of the processes that were evaluated are conceivable technologies for the transition of the energy system towards renewable energy sources from a technical and economic point of view, although small‐scale hydrogen production is considerably more expensive.

Keywords:
Biomass (ecology) Biomass gasification Production (economics) Hydrogen production Environmental science Hydrogen Economic analysis Waste management Pulp and paper industry Chemistry Economics Agricultural economics Engineering Agronomy Biology Organic chemistry Microeconomics

Metrics

14
Cited By
5.15
FWCI (Field Weighted Citation Impact)
32
Refs
0.92
Citation Normalized Percentile
Is in top 1%
Is in top 10%

Citation History

Topics

Thermochemical Biomass Conversion Processes
Physical Sciences →  Engineering →  Biomedical Engineering
Catalysts for Methane Reforming
Physical Sciences →  Chemical Engineering →  Catalysis
Hybrid Renewable Energy Systems
Physical Sciences →  Energy →  Energy Engineering and Power Technology
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