Improving algae-assisted bioelectrochemical system with the integration of advanced cell disruption process for lipid recovery: A mini-review

Q1 Environmental Science
Akash Tripathi , Swati Das , Makarand M. Ghangrekar , Brajesh Kumar Dubey
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引用次数: 0

Abstract

The production of sustainable biofuel from algae is hindered by energy-intensive conventional processes that provides low-quality yield at high cost, rendering them impractical for fulfilling global energy demands. In this regard, algal-microbial fuel cells (A-MFCs) offer a promising alternative by simultaneously recovering bioenergy while treating wastewater, and sequestering CO2. However, lipid productivity in A-MFCs remains suboptimal due to challenges in nutrient management, low yields, operational instability, and inefficient reactor designs. Therefore, this review underscores the potential of cultivating lipid-rich algae in A-MFCs, coupled with advanced cell disruption and extraction technologies, to enhance biomass and bioenergy production. Chemical processes like Fenton oxidation, electro and photo-oxidation, facilitate in-situ cell disruption. Whereas, the biological like enzymatic process also provides an amicable condition for solvent-free algal lipid extraction. Hence, integrating A-MFCs with biorefinery frameworks can promote circular bioeconomy and direct lipid recovery, necessitating further research to address operational challenges and optimise sustainable biofuel production.

Abstract Image

改进藻类辅助生物电化学系统与集成先进的细胞破坏过程脂质恢复:一个小回顾
从藻类中生产可持续生物燃料受到能源密集型传统工艺的阻碍,这些工艺提供高成本的低质量产量,使其无法满足全球能源需求。在这方面,藻类-微生物燃料电池(a - mfc)提供了一个有前途的替代方案,在处理废水的同时回收生物能源,并隔离二氧化碳。然而,由于营养物管理、低产量、操作不稳定和反应器设计效率低下等问题,a - mfc的脂质生产效率仍然不理想。因此,本文强调了在a - mfc中培养富脂藻类的潜力,并结合先进的细胞破坏和提取技术,以提高生物质和生物能源的生产。化学过程,如芬顿氧化,电氧化和光氧化,促进原位细胞破坏。而类生物酶法也为无溶剂藻脂提取提供了良好的条件。因此,将a - mfc与生物炼制框架相结合可以促进循环生物经济和直接脂质回收,因此需要进一步研究以解决运营挑战并优化可持续生物燃料生产。
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
Bioresource Technology Reports
Bioresource Technology Reports Environmental Science-Environmental Engineering
CiteScore
7.20
自引率
0.00%
发文量
390
审稿时长
28 days
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