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Hydrogen production via biomass gasification: simulation and performance analysis under different gasifying agents

Hydrogen production via biomass gasification: simulation and performance analysis under different gasifying agents


Titill: Hydrogen production via biomass gasification: simulation and performance analysis under different gasifying agents
Höfundur: Safarian, Sahar
Unnthorsson, Runar
Richter, Christiaan
Útgáfa: 2021-02-28
Tungumál: Enska
Umfang: 1-10
Háskóli/Stofnun: Háskóli Íslands
University of Iceland
Svið: Verkfræði- og náttúruvísindasvið (HÍ)
School of Engineering and Natural Sciences (UI)
Deild: Iðnaðarverkfræði-, vélaverkfræði- og tölvunarfræðideild (HÍ)
Faculty of Industrial Eng., Mechanical Eng. and Computer Science (UI)
Birtist í: Biofuels;
ISSN: 1759-7269
1759-7277 (eISSN)
DOI: 10.1080/17597269.2021.1894781
Efnisorð: Hydrogen production; Biomass gasification; Water-gas shift reactor; Process simulation; Gasifying agents; Vetni; Framleiðsla; Gas (eldsneyti); Lífmassi
URI: https://hdl.handle.net/20.500.11815/2480

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Tilvitnun:

Safarian, S., Unnthorsson, R., & Richter, C. (2021). Hydrogen production via biomass gasification: simulation and performance analysis under different gasifying agents. Biofuels, 1-10. doi:10.1080/17597269.2021.1894781

Útdráttur:

This study develops a new simulation model by ASPEN Plus for gasification integrated with water-gas shift reactors and product recovery unit for hydrogen production. Timber and wood waste (T&WW) as a lignocellulosic biomass was also considered as the input feedstock to the system. Then, the model is applied to investigate the effect of two agents of air and a mixture of air-steam under different operating conditions of temperature and steam to biomass ratio (SBR). The results reveal that the produced hydrogen through the air-steam gasification is at the highest points for all studied temperatures and it would be maximum (44.37 kmol/hr per 1 ton T&WWs) at 700 °C. The hydrogen production efficiency (HPE) can be also raised, stemming from the growth of H2. It values 39.2% at SBR = 0.1 that grows to 70% at SBR = 0.9. The optimum SBR lies between 0.7–0.8 that specific mass flow rate of hydrogen would be higher than 0.1 kghydrogen/kgT&WW.

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