生物氢的可持续生产:原料、预处理方法、生产工艺和环境影响

IF 7.2 2区 工程技术 Q1 CHEMISTRY, APPLIED Fuel Processing Technology Pub Date : 2024-11-16 DOI:10.1016/j.fuproc.2024.108158
Aleksandra Modzelewska , Mateusz Jackowski , Panagiotis Boutikos , Magdalena Lech , Maciej Grabowski , Krystian Krochmalny , María González Martínez , Christian Aragón-Briceño , Amit Arora , Hao Luo , Luca Fiori , Qingang Xiong , Muhammad Yousaf Arshad , Anna Trusek , Halina Pawlak-Kruczek , Lukasz Niedzwiecki
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引用次数: 0

摘要

预计到 2050 年,整个欧盟的氢气使用量将大幅增加,达到 667 至 4000 太瓦时。电解法因其与电网需求的协同作用而被认为是 "灵丹妙药"。然而,生物制氢可以作为电解法的补充,因为它不依赖于电价。本综述全面介绍了生物制氢的现状,展示了不同生物制氢工艺的最新研究成果,并强调了不同工艺(包括基于微生物的生产和热工艺)的潜在问题和不足之处。这项工作表明,目前使用的 "颜色编码 "不足以提供有关特定生物制氢技术可持续性的准确信息。相反,生命周期评估可以为每个调查过程提供大量信息。不过,有必要扩大生命周期评估研究的范围,因为目前出版的研究报告呈现出一种 "碳隧道视野 "综合症,往往忽略了全球变暖以外的其他影响。此外,研究通常倾向于排除资本货物生产的影响,这可能导致对此类技术的了解不全面。此外,不容忽视的是,如果采用二氧化碳捕获和储存技术,生物氢能够实现二氧化碳负排放值。
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Sustainable production of biohydrogen: Feedstock, pretreatment methods, production processes, and environmental impact
A significant increase in the use of hydrogen, expected to reach between 667 and 4000 TWh, is forecasted for the whole EU in 2050. Electrolysis is believed to be a “silver bullet” due to its synergy with the needs of the grid. However, biohydrogen generation could be complimentary to electrolysis since it does not depend on electricity prices. This review presents a comprehensive picture of the landscape in biohydrogen production, showing state-of-the-art research on different biohydrogen production processes and highlighting potential problems and shortcomings for different processes, including microbial-based production and thermal processes. The work shows that “colour coding” used nowadays is insufficient in terms of providing accurate information regarding the sustainability of particular biohydrogen production technologies. Instead, LCA can provide substantial information for each investigated process. However, there is a need for a wider scope of LCA studies since currently published studies present a syndrome of “carbon tunnel vision”, often ignoring impacts other than global warming. Moreover, studies often tend to exclude the impact of capital goods production, which might provide an incomplete overview of such technologies. Moreover, it should not be overlooked that biohydrogen is capable of achieving negative values of CO2 emissions if CCS is implemented.
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来源期刊
Fuel Processing Technology
Fuel Processing Technology 工程技术-工程:化工
CiteScore
13.20
自引率
9.30%
发文量
398
审稿时长
26 days
期刊介绍: Fuel Processing Technology (FPT) deals with the scientific and technological aspects of converting fossil and renewable resources to clean fuels, value-added chemicals, fuel-related advanced carbon materials and by-products. In addition to the traditional non-nuclear fossil fuels, biomass and wastes, papers on the integration of renewables such as solar and wind energy and energy storage into the fuel processing processes, as well as papers on the production and conversion of non-carbon-containing fuels such as hydrogen and ammonia, are also welcome. While chemical conversion is emphasized, papers on advanced physical conversion processes are also considered for publication in FPT. Papers on the fundamental aspects of fuel structure and properties will also be considered.
期刊最新文献
Sustainable production of biohydrogen: Feedstock, pretreatment methods, production processes, and environmental impact An experimental evaluation of thermophysical properties of colloidal suspension of carbon-rich fly ash microparticles and single-walled carbon nanotubes in Jet-A fuel and its impact on evaporation and burning rate Microwave-assisted biodiesel synthesis from waste cooking oil: Exploring the potential of carob pod-derived solid base catalyst Direct synthesis of dimethyl carbonate from methanol and carbon dioxide over Co-Ce-Zr ternary metal solid solution A bifunctional catalyst for direct CO2 conversion to clean fuels: Mechanistic insights and a comprehensive kinetic model
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