Sustainable extraction of bioactive compounds: a life cycle perspective on technologies, solvents, and process scale-up

IF 6.6
Justin Z. Lian, Tie Liu, Jintian Yang, Hengyi Zhu, Nalinpat Chalermchotiwong, Yemima Grain, Long Yue, Xiang Luo, Stefano Cucurachi, Jian Li, Fanran Meng and Bin Dong
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Abstract

The extraction of bioactive natural compounds is crucial to the pharmaceutical, food, and cosmetic industries, but it often entails high energy consumption, greenhouse gas emissions, and environmental impacts associated with solvent use. Life Cycle Assessment (LCA) provides a structured approach to identify environmental hotspots and evaluate trade-offs across solvent use, energy demand, and process scale-up. This review adopts a life-cycle perspective to examine the environmental impacts from upstream stages, including agriculture, raw material processing, and transportation, to extraction, waste management, and end-of-life treatment. Extraction technologies, including microwave-assisted, ultrasound-assisted, solvent-based, pressurized liquid, and high-voltage electrical discharge methods, are compared in terms of environmental performance and process efficiency. Solvent selection is highlighted as a critical factor, with a focus on the balance between extraction yield and sustainability across water, organic, and deep eutectic solvents. The integration of LCA with simulation tools, such as SuperPro Designer and Aspen Plus, is also reviewed for its potential to support scaling-up decisions and resource optimization. Although current LCA studies provide valuable insights, gaps remain in addressing energy constraints, waste flows, and real-world implementation. Advancing sustainable extraction requires a combination of system-level design, data-driven modeling, and circular resource utilization.

Abstract Image

生物活性化合物的可持续提取:技术、溶剂和工艺放大的生命周期观点
生物活性天然化合物的提取对制药、食品和化妆品行业至关重要,但它通常需要高能耗、温室气体排放,以及与溶剂使用相关的环境影响。生命周期评估(LCA)提供了一种结构化的方法来识别环境热点,并评估溶剂使用、能源需求和工艺放大之间的权衡。本文采用生命周期的观点来研究从上游阶段的环境影响,包括农业、原材料加工和运输,到开采、废物管理和生命周期结束处理。在环境性能和工艺效率方面,对微波辅助、超声辅助、溶剂型、加压液体和高压放电等提取技术进行了比较。溶剂选择被强调为一个关键因素,重点是在水、有机和深共晶溶剂的萃取率和可持续性之间取得平衡。LCA与模拟工具(如SuperPro Designer和Aspen Plus)的集成,也对其支持规模决策和资源优化的潜力进行了评估。尽管目前的LCA研究提供了有价值的见解,但在解决能源限制、废物流和实际实施方面仍然存在差距。推进可持续开采需要将系统级设计、数据驱动建模和循环资源利用相结合。
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