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微藻中诱导抗炎分子的化学合成。

Chemically-Induced Production of Anti-Inflammatory Molecules in Microalgae.

机构信息

Algal Biotechnology Group, CIDERTA, RENSMA and Faculty of Sciences, University of Huelva, 21007 Huelva, Spain.

Department of Integrated Sciences, Cell Biology, Faculty of Experimental Sciences, University of Huelva, 21007 Huelva, Spain.

出版信息

Mar Drugs. 2018 Nov 30;16(12):478. doi: 10.3390/md16120478.

Abstract

Microalgae have been widely recognized as a valuable source of natural, bioactive molecules that can benefit human health. Some molecules of commercial value synthesized by the microalgal metabolism have been proven to display anti-inflammatory activity, including the carotenoids lutein and astaxanthin, the fatty acids EPA (eicosapentaenoic acid) and DHA (docosahexaenoic acid), and sulphated polysaccharides. These molecules can accumulate to a certain extent in a diversity of microalgae species. A production process could become commercially feasible if the productivity is high and the overall production process costs are minimized. The productivity of anti-inflammatory molecules depends on each algal species and the cultivation conditions, the latter being mostly related to nutrient starvation and/or extremes of temperature and/or light intensity. Furthermore, novel bioprocess tools have been reported which might improve the biosynthesis yields and productivity of those target molecules and reduce production costs simultaneously. Such novel tools include the use of chemical triggers or enhancers to improve algal growth and/or accumulation of bioactive molecules, the algal growth in foam and the surfactant-mediated extraction of valuable compounds. Taken together, the recent findings suggest that the combined use of novel bioprocess strategies could improve the technical efficiency and commercial feasibility of valuable microalgal bioproducts production, particularly anti-inflammatory compounds, in large scale processes.

摘要

微藻已被广泛认为是天然生物活性分子的宝贵来源,这些分子有益于人类健康。一些通过微藻代谢合成的具有商业价值的分子已被证明具有抗炎活性,包括类胡萝卜素叶黄素和虾青素、脂肪酸 EPA(二十碳五烯酸)和 DHA(二十二碳六烯酸)以及硫酸多糖。这些分子可以在多种微藻物种中积累到一定程度。如果生产效率高且整体生产成本最小化,生产工艺可能具有商业可行性。抗炎分子的生产力取决于每种藻类物种和培养条件,后者主要与营养饥饿和/或温度和/或光强度极端有关。此外,已经报道了一些新型生物工艺工具,这些工具可能同时提高目标分子的生物合成产量和生产力,并降低生产成本。这些新型工具包括使用化学触发剂或增强剂来改善藻类生长和/或生物活性分子的积累、在泡沫中培养藻类和表面活性剂介导的有价值化合物的提取。总之,最近的发现表明,新型生物工艺策略的联合使用可以提高有价值的微藻生物制品生产的技术效率和商业可行性,特别是在大规模工艺中抗炎化合物的生产。

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