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Microalgae photonics

机译:微藻光子学

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摘要

Due to their metabolic flexibility and fast growth rate, microscopic aquatic phototrophs like algae have a potential to become industrial photochemical converters. Algae photosynthesis could enable the large scale production of clean and renewable liquid fuels and chemicals with major environmental, economic and societal benefits. Capital and operational costs are the main issues to address through optical, process and biochemical engineering improvements. In this perspective, a variety of photonic approaches have been proposed - we introduce them here and describe their potential, limitations and compatibility with separate biotechnology and engineering progresses. We show that only sunlight-based approaches are economically realistic. One of photonics' main goals in the algae field is to dilute light to overcome photosaturation effects that impact upon cultures exposed to full sunlight. Among other approaches, we introduce a widely-compatible broadband spectral adaptation technique called AlgoSun that uses luminescence to optimize sunlight spectrum in view of the bioconverter's requirements.
机译:由于它们的代谢灵活性和快速的生长速度,像水藻这样的微观水生养生物有潜力成为工业光化学转化器。藻类的光合作用可以使清洁和可再生液体燃料和化学品的大规模生产具有重大的环境,经济和社会效益。资金和运营成本是通过光学,工艺和生化工程改进来解决的主要问题。从这个角度出发,提出了多种光子方法-我们在此介绍它们,并描述它们的潜力,局限性以及与单独的生物技术和工程进展的兼容性。我们表明,仅基于阳光的方法在经济上是现实的。藻类领域中光子学的主要目标之一是稀释光,以克服光饱和效应,该效应会影响暴露于阳光直射下的培养物。在其他方法中,我们引入了一种广泛兼容的宽带光谱自适应技术,称为AlgoSun,该技术根据生物转换器的需求使用发光来优化阳光光谱。

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