Flue gas CO2 supply methods for microalgae utilization: A review

Xiaosu Yu, Wangbiao Guo, Zhan Hu, Pengcheng Li, Zhuowei (Amanda) Zhang, Jun Cheng, Chunfeng Song, Qing Ye
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Abstract

The potential for utilizing flue gas as a carbon source in microalgal cultivation holds great promise. Incorporating flue gas as a carbon source into microalgae culture processes can accelerate the growth rate of microalgae, consequently enhancing the overall economic viability of the integrated process. There are two key sources of flue gas to consider: flue gas from coal-fired power plants, characterized by a CO2 concentration of 12–15 w/w%, and flue gas from coal chemical processes, boasting a CO2 concentration of 90–99 w/w%. Additionally, the choice between an open or sealed microalgae culture system can also influence economic efficiency. Thus, there are four distinct microalgal cultivation routes to assess: in-situ open systems, off-situ open systems, in-situ sealed systems, and off-situ sealed systems. The incorporation of flue gas as a carbon source in microalgae cultivation demonstrates significant potential for reducing both environmental impact and costs, rendering it a highly promising and sustainable approach for economically efficient microalgae cultivation. In this review, the in-situ open route is recommended for the situation with high flue gas CO2 concentration and the target products of low-margin commodities, while the off-situ sealed route is suitable for the situation with low flue gas CO2 concentration and the target products of high value-added products.
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微藻利用的烟气二氧化碳供应方法:综述
在微藻培养过程中利用烟道气作为碳源大有可为。在微藻培养过程中加入烟道气作为碳源,可以加快微藻的生长速度,从而提高综合过程的整体经济可行性。有两种主要的烟道气来源值得考虑:一种是燃煤发电厂产生的烟道气,其二氧化碳浓度为 12-15 w/w%;另一种是煤化工工艺产生的烟道气,其二氧化碳浓度为 90-99 w/w%。此外,选择开放式还是密封式微藻培养系统也会影响经济效益。因此,有四种不同的微藻培养途径可供评估:原位开放式系统、非原位开放式系统、原位密封式系统和非原位密封式系统。将烟道气作为碳源纳入微藻培养,在减少环境影响和降低成本方面具有巨大潜力,是一种极具经济效益的可持续微藻培养方法。在本综述中,建议在烟气二氧化碳浓度较高且目标产品为低利润商品的情况下采用原位开放式路线,而在烟气二氧化碳浓度较低且目标产品为高附加值产品的情况下采用原位密封式路线。
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