Hydrogen production enhancement using hot gas cleaning system combined with prepared Ni-based catalyst in biomass gasification

Ngo, Thi Ngoc Lan Thao; Chiang, Kung Yuh; Liu, Chiung Fang; Wan, Hou Peng

doi:10.1016/j.ijhydene.2020.08.279

Cited by 38 publications

(7 citation statements)

References 69 publications

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“…A two-stage reactor system was used by Ngo et al 82 to produce hydrogen from the gasification of rice straw. The process included a fluidized-bed reactor working at 800 °C as a gasifier followed by a packed bed reactor filled with the Ni-based catalyst working at 250 °C or 400 °C to enhance the amount of H 2 in the gas product.…”

Section: Biorefinery Based On the Thermochemical Treatment-commercial...mentioning

confidence: 99%

A review on thermochemical based biorefinery catalyst development progress

Gholizadeh,

Castro,

Fabrega

et al. 2023

Sustainable Energy Fuels

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Section: Biorefinery Based On the Thermochemical Treatment-commercial...mentioning

confidence: 99%

A review on thermochemical based biorefinery catalyst development progress

Gholizadeh,

Castro,

Fabrega

et al. 2023

Sustainable Energy Fuels

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“…This process also generates a pure stream of CO 2 that can be reused. Figure 4 illustrates the process flow of syn gas production from biomass and reforming of producer gas for better applicability [102,110]. illustrates the process flow of syn gas production from biomass and reforming of producer gas for better applicability [102,110].…”

Section: Producer Gas Reformingmentioning

confidence: 99%

A Review on Advanced Processes of Biohydrogen Generation from Lignocellulosic Biomass with Special Emphasis on Thermochemical Conversion

Sharma,

Nazari,

Haydary

et al. 2023

Energies

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The utilization of lignocellulosic biomass as an alternative energy source presents a promising opportunity to achieve a future energy system that is clean and free from CO2 emissions. To realize this potential, it is crucial to develop effective techniques for converting biomass and organic solid waste into secondary energy sources. Among the available options, hydrogen production stands out due to its numerous advantages, including its cleanliness, versatility in conversion and utilization technologies, high energy efficiency, and dense energy content per unit weight. This article offers a comprehensive overview of different conversion pathways and important technologies for generating hydrogen from biomass and organic solid waste. It specifically focuses on the thermochemical conversion process, which shows promise as an economically viable approach. While certain thermochemical conversion processes are still in the developmental phase, utilizing organic biomass for hydrogen production is widely recommended due to its ability to yield higher amounts of end products and its compatibility with existing facilities. However, it should be noted that this method necessitates a substantial amount of energy due to its endothermic nature. This article also explores alternative hydrogen conversion technologies and their potential for utilizing organic biomass as a feedstock, while addressing the challenges and limitations associated with these methods.

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“…In another study, by Ngo et al [88], producer gas from the gasification of rice straw underwent steam reforming at 400 • C using a zeolite catalyst to enhance hydrogen generation and minimize tar yield. The H 2 and CO contents of the syngas after SMR increased from 7.31 vol.% to 14.57 vol.% and 8.03 vol.% to 17.34 vol.%, respectively, while tar removal efficiency was observed at 70-90%.…”

Section: Producer Gas Processing: Steam Methane Reformingmentioning

confidence: 99%

Simulation and Techno-Economic Assessment of Hydrogen Production from Biomass Gasification-Based Processes: A Review

2022

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The development of low-carbon fuels from renewable resources is a key measure to reduce carbon dioxide emissions and mitigate climate change. Biomass gasification with subsequent gas processing and purification is a promising route to produce low-carbon hydrogen. In the past decade, simulation-based modelling using Aspen Plus software has supported the investigation of future potential industrial applications of this pathway. This article aims to provide a review of the modelling and economic assessment of woody biomass gasification-based hydrogen production, with focus on the evaluation of the model accuracy in predicting producer gas composition in comparison with experimental data depending on the approach implemented. The assessment of comprehensive models, which integrate biomass gasification with gas processing and purification, highlights how downstream gas processing could improve the quality of the syngas and, thus, the hydrogen yield. The information in this article provides an overview of the current practices, challenges, and opportunities for future research, particularly for the development of a comprehensive pathway for hydrogen production based on biomass gasification. Moreover, this review includes a techno-economic assessment of biomass to hydrogen processes, which will be useful for implementation at industrial-scale.

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Hydrogen production enhancement using hot gas cleaning system combined with prepared Ni-based catalyst in biomass gasification

Cited by 38 publications

References 69 publications

A review on thermochemical based biorefinery catalyst development progress

A review on thermochemical based biorefinery catalyst development progress

A Review on Advanced Processes of Biohydrogen Generation from Lignocellulosic Biomass with Special Emphasis on Thermochemical Conversion

Simulation and Techno-Economic Assessment of Hydrogen Production from Biomass Gasification-Based Processes: A Review

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