Microalgae-based biodiesel: integrating AI, CRISPR and nanotechnology for sustainable biofuel development.

IF 3.3 Q2 BIOCHEMISTRY & MOLECULAR BIOLOGY
Fariha Kanwal, Ambreen Aslam, Angel A J Torriero
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Abstract

Microalgae are a promising feedstock for biodiesel due to their rapid growth, high lipid content and ability to use non-arable land and wastewater. This review synthesises recent advances in artificial intelligence (AI)-driven strain optimisation, engineering, nanotechnology-assisted processing, and life cycle and technoeconomic insights to evaluate pathways for industrialisation. Over the past decade (2015-2024), genetic engineering and, more recently, AI-guided strain selection have improved lipid productivity by up to 40%. Cultivation advances, including hybrid photobioreactor-open pond systems and precision pH/CO2 control, have enhanced biomass yields while reducing costs. Innovation in lipid extraction, such as supercritical CO2 and microwave-assisted methods, now achieves >90% yields with lower toxicity, while magnetic nanoparticle-assisted harvesting and electroflocculation have reduced energy inputs by 20-30%. Life cycle analyses (net energy ratio ~2.5) and integration of high-value co-products (e.g. pigments and proteins) underscore the need to align biological innovations with techno-economic feasibility. This review uniquely integrates advances in AI, CRISPR and nanotechnology with life cycle and techno-economic perspectives, providing a comprehensive framework that links laboratory-scale innovation to industrial feasibility and positions microalgal biodiesel as a viable contributor to global decarbonisation strategies.

基于微藻的生物柴油:整合人工智能、CRISPR和纳米技术用于可持续生物燃料开发。
微藻因其生长速度快、油脂含量高、能够利用非耕地和废水等优点,是一种很有前途的生物柴油原料。本文综合了人工智能(AI)驱动的应变优化、工程、纳米技术辅助加工、生命周期和技术经济见解等方面的最新进展,以评估工业化途径。在过去的十年(2015-2024)中,基因工程和最近人工智能引导的菌株选择将脂质产量提高了40%。栽培技术的进步,包括混合光生物反应器-开放池塘系统和精确的pH/CO2控制,在降低成本的同时提高了生物质产量。在脂质提取方面的创新,如超临界CO2和微波辅助方法,现在可以在毒性较低的情况下达到100 - 90%的收率,而磁性纳米颗粒辅助收获和电絮凝可以减少20-30%的能量投入。生命周期分析(净能量比~2.5)和高价值副产品(如色素和蛋白质)的整合强调了将生物创新与技术经济可行性结合起来的必要性。这篇综述独特地将人工智能、CRISPR和纳米技术的进展与生命周期和技术经济观点结合起来,提供了一个综合框架,将实验室规模的创新与工业可行性联系起来,并将微藻生物柴油定位为全球脱碳战略的可行贡献者。
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
CiteScore
7.70
自引率
0.00%
发文量
94
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