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Nanoscale microfibrillated cellulose reinforced truly-solid polymer electrolytes for flexible, safe and sustainable lithium-based batteries

机译:纳米级微纤化纤维素增强的真正固体聚合物电解质,用于柔性,安全和可持续的锂基电池

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摘要

Fully-solid methacrylic-based thermo-set polymer electrolyte membranes reinforced with nanoscale micro-fibrillated cellulose (MFC) fibres are here presented. The preparation is carried out in water and the membrane is obtained by an easy and reliable UV-induced polymerisation via a free radical mechanism; thus, the overall process is highly energy efficient and environmentally friendly. The morphology of the composite electrolytes as well as the mapping of the elements present in the system is investigated by scanning electron microscopy, while the thermal behaviour is investigated by thermo-gravimetric analysis and differential scanning calorimetry. The composite polymer electrolytes prepared by MFC fibres reinforcement exhibit excellent mechanical properties with a Young's modulus as high as 32 MPa. Acceptable ionic conductivity values (above 0.1 mS cm~(-1) at 50 °C) and good overall electrochemical performances are maintained, ensuring that such specific approach would make these hybrid organic, cellulose-based composite polymer electrolyte systems a strong contender in the field of thin and flexible fully-solid lithium based power sources, especially for moderately high temperature applications. Graphical Abstract: [Figure not available: see fulltext.]
机译:本文介绍了用纳米级微原纤化纤维素(MFC)纤维增强的全固态基于甲基丙烯酸的热固性聚合物电解质膜。制备是在水中进行的,并且膜通过自由基机制通过容易和可靠的紫外线诱导的聚合反应而制得。因此,整个过程具有很高的能源效率和环境友好性。通过扫描电子显微镜研究复合电解质的形态以及系统中存在的元素的分布,同时通过热重分析和差示扫描量热法研究热行为。通过MFC纤维增强制备的复合聚合物电解质表现出优异的机械性能,杨氏模量高达32MPa。保持可接受的离子电导率值(在50°C时高于0.1 mS cm〜(-1))和良好的整体电化学性能,从而确保这种特定方法将使这些杂化的有机,纤维素基复合聚合物电解质体系成为该领域的强有力竞争者薄而灵活的全固态锂基电源领域,特别是在中等高温应用中。图形摘要:[该图不可用:请参见全文。]

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