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Algal Photosynthesis as the Primary Driver for a Sustainable Development in Energy Feed and Food Production

机译:藻类光合作用是能源饲料和粮食生产可持续发展的主要动力

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摘要

High oil prices and global warming that accompany the use of fossil fuels are an incentive to find alternative forms of energy supply. Photosynthetic biofuel production represents one of these since for this, one uses renewable resources. Sunlight is used for the conversion of water and CO2 into biomass. Two strategies are used in parallel: plant-based production via sugar fermentation into ethanol and biodiesel production through transesterification. Both, however, exacerbate other problems, including regional nutrient balancing and the world's food supply, and suffer from the modest efficiency of photosynthesis. Maximizing the efficiency of natural and engineered photosynthesis is therefore of utmost importance. Algal photosynthesis is the system of choice for this particularly for energy applications. Complete conversion of CO2 into biomass is not necessary for this. Innovative methods of synthetic biology allow one to combine photosynthetic and fermentative metabolism via the so-called Photanol approach to form biofuel directly from Calvin cycle intermediates through use of the naturally transformable cyanobacterium Synechocystis sp. PCC 6803. Beyond providing transport energy and chemical feedstocks, photosynthesis will continue to be used for food and feed applications. Also for this application, arguments of efficiency will become more and more important as the size of the world population continues to increase. Photosynthetic cells can be used for food applications in various innovative forms, e.g., as a substitute for the fish proteins in the diet supplied to carnivorous fish or perhaps—after acid hydrolysis—as a complex, animal-free serum for growth of mammalian cells in vitro.
机译:使用化石燃料伴随着高油价和全球变暖,这是寻找替代能源供应形式的动力。光合生物燃料的生产就是其中之一,因为为此,它使用可再生资源。阳光用于将水和二氧化碳转化为生物质。并行使用两种策略:通过糖发酵成乙醇的基于植物的生产和通过酯交换反应的生物柴油生产。但是,两者都加剧了其他问题,包括区域营养平衡和世界粮食供应,并且光合作用效率不高。因此,最大限度地提高自然和工程光合作用的效率至关重要。藻类光合作用是为此选择的系统,尤其是在能源应用中。为此,不需要将二氧化碳完全转化为生物质。合成生物学的创新方法允许人们通过所谓的Photanol方法将光合作用和发酵代谢结合起来,从而通过使用天然可转化的蓝藻Synechocystis sp从加尔文循环中间体直接形成生物燃料。 PCC6803。除了提供运输能源和化学原料外,光合作用还将继续用于食品和饲料应用。同样对于此应用程序,随着世界人口规模的不断增加,关于效率的争论也将变得越来越重要。光合细胞可以各种创新形式用于食品应用,例如,替代食肉鱼的日粮中的鱼蛋白,或者在酸水解后,作为复杂的无动物血清,用于哺乳动物细胞的生长。体外。

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