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A critical review of integration analysis of microbial electrosynthesis (MES) systems with waste biorefineries for the production of biofuel and chemical from reuse of CO2

机译:对微生物电合成(MES)系统与废生物精炼厂的整合分析的重要评论,该废旧精炼厂用于利用二氧化碳的再利用来生产生物燃料和化学品

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摘要

Despite some success with microbial fuel cells and microbial electrolysis cells in recovering resources from wastes, challenges with their scale and yield need to be resolved. Waste streams from biorefineries e.g. bioethanol and biodiesel plants and wastewaters are plausible substrates for microbial electrosynthesis (MES). MES integration can help biorefineries achieving the full polygeneration potentials, i.e. recovery of metals turning apparently pollutants from biorefineries into resources, production of biofuels and chemicals from reuse of CO2 and clean water. Symbiotic integration between the two systems can attain an economic and environmental upside of the overall system. We envision that electrochemical technologies and waste biorefineries can be integrated for increased efficiency and competitiveness with stillage released from the latter process used in the former as feedstock and energy resource recovered from the former used in the latter. Such symbiotic integration can avoid loss of\ud2\udmaterial and energy from waste streams, thereby increasing the overall efficiency, economics and environmental performance that would serve towards delivering the common goals from both the systems. We present an insightful overview of the sources of organic wastes from biorefineries for integration with MES, anodic and cathodic substrates and biocatalysts. In addition, a generic and effective reaction and thermodynamic modelling framework for the MES has been given for the first time. The model is able to predict multi-component physico-chemical behaviour, technical feasibility and best configuration and conditions of the MES for resource recovery from waste streams.
机译:尽管微生物燃料电池和微生物电解电池在从废物中回收资源方面取得了一些成功,但仍需要解决其规模和产量方面的挑战。来自生物精炼厂的废物流,例如生物乙醇和生物柴油厂以及废水是微生物电合成(MES)的合理底物。 MES集成可以帮助生物精炼厂充分发挥多联产的潜力,即回收从生物精炼厂转化为资源的显然是污染物的金属,通过再利用CO2和清洁水生产生物燃料和化学品。两个系统之间的共生整合可以在整个系统上实现经济和环境上的优势。我们设想,可以将电化学技术和废料生物精炼厂整合起来,以提高效率和竞争力,将前者用作原料的后一种工艺释放出的蒸馏物用作后者的原料,并从后者中回收能源。这种共生的整合可以避免废物流中材料和能量的损失,从而提高整体效率,经济性和环境绩效,这有助于实现两个系统的共同目标。我们提供了有关与MES,阳极和阴极底物以及生物催化剂整合的生物精炼厂有机废物来源的深刻见解。此外,首次给出了针对MES的通用有效反应和热力学建模框架。该模型能够预测多组分的理化行为,技术可行性以及MES的最佳配置和条件,以从废物流中回收资源。

著录项

  • 作者

    Sadhukhan, J;

  • 作者单位
  • 年度 2015
  • 总页数
  • 原文格式 PDF
  • 正文语种 en
  • 中图分类
  • 入库时间 2022-08-20 20:29:59

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