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Intervention of microfluidics in biofuel and bioenergy sectors: Technological considerations and future prospects

机译:微流体对生物燃料和生物能源领域的干预:技术考虑和未来前景

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Biofuels/Bioenergy is renewable in nature by mitigating the greenhouse gas emissions despite rapid economic growth and energy demand. Biodiesel and bioethanol production from renewable sources are gaining much attention but unable to translate the technologies into commercially ventures. Several technical challenges like the screening of algae/yeast for higher lipid accumulation/ethanol production, separation and purification of microalgae from contaminants, harvesting of microalgae, improving transesterification efficiency with meager solvent consumption, energy and time have been addressed using microfluidic devices. Besides, it has shown promising results in microbial fuel cell domain. Microfluidics and microreactors offer miniaturization of experiments by a very little expense of solvents, energy and time with higher precision results. Moreover, it provides 19.2% higher surface to volume ratio when compared with Petri dish (35 mm diameter) and microchannel (50 mu m tall, 50 mu m wide, and 30 mm long). Higher surface to volume ratio is helpful in the integration of the whole laboratory (i.e., lab-on-a-chip), where efficient screening of ethanol/lipid producer, higher transesterification efficiency could be ascertained. Due to the overwhelming potential of microfluidics in biofuel and bioenergy sectors, the present review article illustrated several examples to depict the importance of microfluidics towards high-throughput analysis of screening the potent microbial/microalgal strain, fabrication of microfluidic bioreactor, quality analysis of biofuel and bioenergy products.
机译:尽管经济快速增长和能源需求旺盛,但通过减少温室气体排放,生物燃料/生物能源在本质上是可再生的。利用可再生资源生产生物柴油和生物乙醇受到了广泛关注,但无法将其转化为商业用途。使用微流体装置解决了一些技术挑战,例如筛选藻类/酵母以提高脂质积累/乙醇的产量,从污染物中分离和纯化微藻类,收获微藻类,提高微酯溶剂消耗,能量和时间的酯交换效率。此外,它已在微生物燃料电池领域显示出令人鼓舞的结果。微流体和微反应器只需花费很少的溶剂,能量和时间,就可以实现实验的小型化,并具有更高的精度。此外,与培养皿(直径35毫米)和微通道(高50微米,宽50微米,长30毫米)相比,它的表面积/体积比高19.2%。较高的表面积/体积比有助于整个实验室(即芯片实验室)的整合,在该实验室中,可以有效筛选乙醇/脂质产生剂,从而可以确定更高的酯交换效率。由于微流控技术在生物燃料和生物能源领域的巨大潜力,本综述文章列举了几个例子来说明微流控技术对筛选有效微生物/微藻菌株的高通量分析,微流控生物反应器的制造,生物燃料质量分析和制造的重要性。生物能源产品。

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