A Review of the Technological Aspects and Process Optimization of Bioethanol Production From Corn Stover Biomass: Pretreatment Process, Hydrolysis, Fermentation, Purification Process, and Future Perspective

IF 1.5 Q4 ENGINEERING, ENVIRONMENTAL
Hamzah Fansuri, Umi Purwandari, Sugili Putra, Arief Adhiksana, Irvan Dwi Junianto, Rama Oktavian, Joan Cordiner
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引用次数: 0

Abstract

Bioethanol, a sustainable energy solution derived from renewable biomass, has gained prominence, with corn stover emerging as a substantial biomass resource in Indonesia. Corn stover, a corn residue, is one of the top three agricultural wastes worldwide and is abundantly available. However, a significant portion of corn stover is burned in fields rather than utilized for bioethanol production, whereas it has potential as a bioethanol feedstock. As the world strives to realize sustainable and environmentally friendly energy security, bioethanol production from corn stover can be one of the solutions to be developed. Nonetheless, the current immaturity of bioethanol production technology is one of the causes of large-scale production failure. The present paper comprehensively reviews the technological aspects and process optimization of bioethanol production using corn stover as a feedstock comprising pretreatment, hydrolysis, fermentation, and bioethanol purification processes. According to our critical review, ammonia fiber expansion (AFEX) pretreatment is the most effective conventional pretreatment, with glucose yield up to 90%. Moreover, ultrasound appears to be the most viable option for nonconventional pretreatment of corn stover for producing bioethanol. However, combining ultrasound pretreatment and dilute aqueous ammonia produced 80.6% sugar output. Furthermore, enzymatic hydrolysis emerges as the most effective saccharification, yielding up to 81.39%. Moreover, the fermentation process of corn stover with the saccharification and co-fermentation (SScF) method and the process optimization with response surface methodology (RSM) could produce bioethanol with a concentration of up to 59.8 g/L and 92.07% ethanol yield, respectively. This review also reveals that pervaporation for the purification process is the best choice for producing bioethanol with high purity up to > 99%. In addition, this method could reduce the energy used by 6.6% lower, 24.2% lower carbon footprint, and have the lowest total capital and production costs compared to conventional molecular sieves and extractive distillation. We believe this review article can provide a reference for selecting the best bioethanol production process from corn stover for further research.

利用玉米秸秆生物质生产生物乙醇的技术和工艺优化综述:预处理工艺、水解、发酵、纯化工艺和未来展望
生物乙醇是一种从可再生生物质中提取的可持续能源解决方案,在印尼,玉米秸秆已成为一种重要的生物质资源。玉米秸秆是一种玉米残渣,是全球三大农业废弃物之一,资源丰富。然而,很大一部分玉米秸秆被烧毁,而不是用于生物乙醇生产,而玉米秸秆作为生物乙醇原料却具有潜力。在全球努力实现可持续和环保型能源安全的过程中,利用玉米秸秆生产生物乙醇可能是有待开发的解决方案之一。然而,目前生物乙醇生产技术的不成熟是导致大规模生产失败的原因之一。本文全面综述了以玉米秸秆为原料生产生物乙醇的技术问题和工艺优化,包括预处理、水解、发酵和生物乙醇纯化过程。根据我们的严格审查,氨化纤维膨胀(AFEX)预处理是最有效的常规预处理,葡萄糖产量可达 90%。此外,超声波似乎是对玉米秸秆进行非常规预处理以生产生物乙醇的最可行方案。然而,将超声波预处理和稀氨水结合使用,糖产量可达 80.6%。此外,酶水解是最有效的糖化方法,产糖率高达 81.39%。此外,玉米秸秆的发酵工艺采用糖化和共发酵(SScF)方法,并利用响应面方法(RSM)进行工艺优化,可生产出浓度高达 59.8 克/升的生物乙醇和 92.07% 的乙醇产量。本综述还揭示,要生产纯度高达 99% 的生物乙醇,蒸发提纯工艺是最佳选择。此外,与传统的分子筛和萃取蒸馏法相比,该方法的能耗降低了 6.6%,碳足迹降低了 24.2%,总投资和生产成本最低。我们相信这篇综述文章能为进一步研究选择最佳的玉米秸秆生物乙醇生产工艺提供参考。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Environmental Quality Management
Environmental Quality Management Environmental Science-Management, Monitoring, Policy and Law
CiteScore
2.20
自引率
0.00%
发文量
94
期刊介绍: Four times a year, this practical journal shows you how to improve environmental performance and exceed voluntary standards such as ISO 14000. In each issue, you"ll find in-depth articles and the most current case studies of successful environmental quality improvement efforts -- and guidance on how you can apply these goals to your organization. Written by leading industry experts and practitioners, Environmental Quality Management brings you innovative practices in Performance Measurement...Life-Cycle Assessments...Safety Management... Environmental Auditing...ISO 14000 Standards and Certification..."Green Accounting"...Environmental Communication...Sustainable Development Issues...Environmental Benchmarking...Global Environmental Law and Regulation.
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