微藻生物工程:未来的碳捕获工具

IF 6 Q1 ENGINEERING, MULTIDISCIPLINARY
Adamu Yunusa Ugya , Yangyang Sheng , Hui Chen , Qiang Wang
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引用次数: 0

摘要

微藻具有独特的特性,是一种可持续的碳捕获和生物勘探工具,但其规模化应用一直受到各种挑战的阻碍。本研究揭示了克服现有障碍、促进基于微藻的解决方案在碳捕集技术中的应用的潜力。本研究还探讨了不同生物工程技术提高微藻光合效率、碳固定途径和抗逆性从而实现碳捕获的机制。对这些生物工程技术进行了解密,以实现微藻资源的规模化培养和碳捕获应用。规模化应用的成功与否与代谢和基因工程战略的实施有关。这些策略倾向于提高基于微藻的碳捕集技术的经济和环境可行性。微藻应激反应机制工程显示,可以提高微藻的生物量生产率和复原力。确定了消除与碳捕获中微藻规模化应用的技术可行性有关的问题的途径。该研究强调了政策和监管框架在提高微藻作为碳捕集放大应用工具的可行性方面的作用。但是,要确定基于微藻的碳捕集技术的规模化应用,研究方向应侧重于使用生物工程技术,以方便将微藻系统集成到工业流程中。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Microalgal bioengineering: A futuristic tool for carbon capture
Microalgae is a sustainable tool for carbon capture and bioprospecting due to its unique characteristics, but its scale-up application has been hindered by different challenges. This study alluded to the potential for overcoming existing barriers and easing the application of microalgae-based solutions in carbon capture technologies. The mechanisms by which different bioengineering techniques enhance the photosynthetic efficiency, carbon fixation pathways, and stress tolerance in microalgae, leading to carbon capture, were also explored. These bioengineering techniques were deciphered towards scale-up cultivation of microalgal resources and application in carbon capture. The success of scale-up applications was linked to the implementation of metabolic and genetic engineering strategies. These strategies tend to enhance the economic and environmental feasibility of microalgae-based carbon capture technologies. The engineering of microalgae stress responsive mechanisms was shown to improve biomass productivity and resilience of microalgae. The pathway towards the eradication of issues related to the technical feasibility of microalgae scale-up application in carbon capture was identified. The study buttressed the role of policy and regulatory frameworks in enhancing the feasibility of microalgae usage as a tool in scale-up carbon capture. But to ascertain a scale-up application of microalgae-based technology for carbon capture, research direction should focus on the use of bioengineering techniques to ease the integration of microalgae systems into industrial processes.
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来源期刊
Results in Engineering
Results in Engineering Engineering-Engineering (all)
CiteScore
5.80
自引率
34.00%
发文量
441
审稿时长
47 days
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