微藻(硅藻)生产-水产养殖和生物燃料的联系

C. Merz, K. Main
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引用次数: 15

摘要

随着渔业日益工业化和野生鱼类资源日益枯竭,水产养殖生产迅速增长,以解决捕捞渔业的不足和水产养殖长期成功的限制。其中一个不足是需要生产一种合适的、可持续的替代品,以替代目前使用的捕捞渔业衍生的鱼粉和基于鱼油的鱼类饲料,同时在养殖鱼类产品中保持人类蛋白质需求和长链(LC) omega-3油的健康益处。鱼类从它们消耗的食物中获取LC -3油,这些食物最终来自微藻等较低营养水平的初级生产者。利用综合水产养殖系统(IAS)的原则和实践,可以养殖微藻(硅藻)并直接加工其藻类/单细胞油(SCO)、蛋白质和营养物质。除了用作水产养殖原料外,由于与其他陆生能源作物相比,微藻具有更高的光合效率、更高的生物量产量和更快的生长速度,因此已被研究用于生物燃料生产。基于上海合作组织的碳中性可再生液体生物燃料解决方案目前正在研究中,但生产成本高。液体生物燃料被认为将取代不可再生的、可获得性有限的、通过温室气体(GHG)排放导致气候变化的石油衍生运输燃料。通过对微藻/SCO生产、收获和加工技术的创新,探索水产养殖和生物燃料部门之间的水-能源-粮食关系协同效应,可以缓解目前SCO生产的高成本限制。工程师、生物学家和化学家之间的跨学科合作对它们的成功发展至关重要。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Microalgae (diatom) production — The aquaculture and biofuel nexus
As fishing has become more industrialized and wild fish stocks increasingly depleted, aquaculture production has grown rapidly to address the shortfalls in capture fisheries and limitations to long-term aquaculture success. One such shortfall is the need to produce a suitable, sustainable, substitute for the capture fishery derived fish meal and oil based fish feeds currently in use, while maintaining the human protein requirements and health benefits of Long Chain (LC) omega-3 oils in farmed fish products. Fish derive the LC omega-3 oils from the food they consume, which ultimately comes from lower trophic level primary producers like microalgae. Using Integrated Aquaculture System (IAS) principles and practices, microalgae (diatoms) can be raised and processed directly for their Algal/Single Cell Oils (SCO), protein, and nutrients. Besides the use as an aquaculture feedstock, microalgae have been investigated for biofuel production because of higher photosynthetic efficiency, higher biomass production, and faster growth compared to other terrestrial energy crops. SCO based carbon-neutral renewable liquid biofuel solutions are currently under investigation but suffer from high production costs. Liquid biofuels have been considered to displace non-renewable, petroleum-derived transport fuels of limited availability which contribute to climate change via greenhouse gas (GHG) emissions. The current high cost constraint of SCO production could be alleviated through explored water-energy-food nexus synergies between the aquaculture and biofuels sector with a concentration on innovations in microalgae/SCO production, harvesting, and processing technologies. Interdisciplinary collaborations between engineers, biologists and chemists are essential for their successful development.
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