微藻生物精炼厂:技术权衡和创新途径的系统回顾

IF 6.1 1区 工程技术 Q1 BIOTECHNOLOGY & APPLIED MICROBIOLOGY
Yucong Geng, Alishba Shaukat, Wania Azhar, Qurat-Ul-Ain Raza, Ayesha Tahir, Muhammad Zain ul Abideen, Muhammad Abu Bakar Zia, Muhammad Amjad Bashir, Abdur Rehim
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引用次数: 0

摘要

本综述严格审查了微藻生物精炼厂的整个价值链,其中心目标是阐明从中试规模示范到商业上可行的循环经济应用过渡的关键技术、经济和环境推动因素和障碍。系统地检索了五个主要的科学数据库,使用预定义的布尔字符串:“藻类生物炼制”、“微藻生物燃料”、“技术经济分析”、“生命周期评估”和“生物产品回收”。纳入标准包括2007年1月至2025年3月期间发表的同行评审研究和权威政策文件,这些文件提供了有关上游种植、中游加工和下游转化以及技术经济评估(TEA)和生命周期分析(LCA)的经验数据。排除标准包括非英语评论,没有实验验证的纯理论模型,以及专门关注单一产品流的研究。与以往的研究不同,该研究提供了一个全新的综合框架,综合了培养模式、遗传和代谢工程、人工智能优化和物联网驱动监测方面的最新进展。本综述对资本支出和运营支出之间的权衡、收获和干燥相关的能源损失以及LCA的不一致性进行了批判性评估,以确定哪些性能改进可以产生最显著的经济和环境回报。最后,本文提出了一个有针对性的研究路线图,包括多元菌株工程、杂交栽培架构、低能量收获技术、级联兼容的分馏平台、标准化的LCA/TEA协议和支持政策机制,为克服当前的瓶颈指明了一条清晰的道路。这种全面的、基于证据的合成旨在为学术研究和工业战略提供信息,从而推动可持续藻类生物炼制领域的发展。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Microalgal biorefineries: a systematic review of technological trade-offs and innovation pathways

This review critically examines the entire value chain of microalgal biorefineries, with the central aim of elucidating the key technological, economic, and environmental enablers and barriers that govern their transition from pilot-scale demonstrations to commercially viable, circular-economy applications. A systematic literature search was conducted across five major scientific databases using predefined Boolean strings: “algal biorefineries,” “microalgae biofuel,” “techno-economic analysis,” “life-cycle assessment,” and “bioproduct recovery.” Inclusion criteria encompassed peer-reviewed studies and authoritative policy documents published between January 2007 and March 2025 that provided empirical data on upstream cultivation, midstream processing, and downstream conversion, as well as techno-economic assessments (TEA) and life-cycle analyses (LCA). Exclusion criteria included non-English commentaries, purely theoretical models without experimental validation, and studies that focused exclusively on single-product streams. Unlike previous reviews that address isolated segments of the algal biorefinery pipeline, this work delivers a novel, integrative framework that synthesizes recent advances across cultivation modes, genetic and metabolic engineering, AI‐enabled optimization, and IoT‐driven monitoring. This review critically evaluates the trade-offs between CAPEX and OPEX, energy penalties associated with harvesting and drying, and inconsistencies in LCA to identify, where performance improvements yield the most significant economic and environmental returns. Finally, this review proposes a targeted research roadmap, spanning multivariate strain engineering, hybrid cultivation architectures, low‐energy harvesting technologies, cascade‐compatible fractionation platforms, standardized LCA/TEA protocols, and supportive policy mechanisms, that charts a clear path toward overcoming current bottlenecks. This comprehensive, evidence‐based synthesis aims to inform both academic research and industrial strategy, thereby advancing the field of sustainable algal biorefineries.

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来源期刊
Biotechnology for Biofuels
Biotechnology for Biofuels 工程技术-生物工程与应用微生物
自引率
0.00%
发文量
0
审稿时长
2.7 months
期刊介绍: Biotechnology for Biofuels is an open access peer-reviewed journal featuring high-quality studies describing technological and operational advances in the production of biofuels, chemicals and other bioproducts. The journal emphasizes understanding and advancing the application of biotechnology and synergistic operations to improve plants and biological conversion systems for the biological production of these products from biomass, intermediates derived from biomass, or CO2, as well as upstream or downstream operations that are integral to biological conversion of biomass. Biotechnology for Biofuels focuses on the following areas: • Development of terrestrial plant feedstocks • Development of algal feedstocks • Biomass pretreatment, fractionation and extraction for biological conversion • Enzyme engineering, production and analysis • Bacterial genetics, physiology and metabolic engineering • Fungal/yeast genetics, physiology and metabolic engineering • Fermentation, biocatalytic conversion and reaction dynamics • Biological production of chemicals and bioproducts from biomass • Anaerobic digestion, biohydrogen and bioelectricity • Bioprocess integration, techno-economic analysis, modelling and policy • Life cycle assessment and environmental impact analysis
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