New Process Combining Fe-Based Chemical Looping and Biomass Pyrolysis for Cogeneration of Hydrogen, Biochar, Bio-Oil and Electricity with In-Suit CO2 Separation

Fe-based chemical looping gasification is a clean biomass technology, which has the advantage of reducing CO2 emissions and the potential of self-sustaining operation without supplemental heating. A novel process combining Fe-based chemical looping and biomass pyrolysis was proposed and simulated us...

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Published in:Molecules (Basel, Switzerland) Switzerland), 2023-03, Vol.28 (6), p.2793
Main Authors: Zhou, Xing, Jin, Huilong, Li, Na, Ma, Xiaolong, Ma, Zichuan, Lu, Pei, Yao, Xiaomeng, Chen, Shenna
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cited_by cdi_FETCH-LOGICAL-c471t-423f7c609da3c6735bad3393e654ebb1470013aa34870812fe1006a864a84b463
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container_title Molecules (Basel, Switzerland)
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creator Zhou, Xing
Jin, Huilong
Li, Na
Ma, Xiaolong
Ma, Zichuan
Lu, Pei
Yao, Xiaomeng
Chen, Shenna
description Fe-based chemical looping gasification is a clean biomass technology, which has the advantage of reducing CO2 emissions and the potential of self-sustaining operation without supplemental heating. A novel process combining Fe-based chemical looping and biomass pyrolysis was proposed and simulated using Aspen Plus. The biomass was first subjected to pyrolysis to coproduce biochar, bio-oil and pyrolysis gas; the pyrolysis gas was subjected to an Fe looping process to obtain high-purity hydrogen and carbon dioxide. The influences of the pyrolysis reactor operating temperature and fuel reactor operation temperature, and the steam reactor and air reactor on the process performance are researched. The results showed that, under the operating condition of the established process, 23.07 kg/h of bio-oil, 24.18 kg/h of biochar, 3.35 kg/h of hydrogen and a net electricity of 3 kW can be generated from 100 kg/h of rice straw, and the outlet CO2 concentration of the fuel reactor was as high as 80%. Moreover, the whole exergy efficiency and total exergy loss of the proposed process was 58.98% and 221 kW, respectively. Additionally, compared to biomass direct chemical looping hydrogen generation technology, the new process in this paper, using biomass pyrolysis gas as a reactant in the chemical looping hydrogen generation process, can enhance the efficiency of hydrogen generation.
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subjects Air temperature
Biomass
Carbon dioxide
Carbon dioxide concentration
Charcoal
chemical looping
Cogeneration
Efficiency
Electricity
Emissions
Energy consumption
Exergy
exergy efficiency
Gasification
Heat
Heat recovery systems
Hydrogen
Hydrogen production
Natural gas
Operating temperature
performance analysis
Petroleum production
Pyrolysis
Reactors
Technology
Thermodynamics
title New Process Combining Fe-Based Chemical Looping and Biomass Pyrolysis for Cogeneration of Hydrogen, Biochar, Bio-Oil and Electricity with In-Suit CO2 Separation
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