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Transparent Bendable Secondary Zinc-Air Batteries by Controlled Void Ionic Separators

机译:可控的空心离子分离器可弯曲弯曲的透明锌空气二次电池

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摘要

First ever transparent bendable secondary zinc-air batteries were fabricated. Transparent stainless-steel mesh was utilized as the current collector for the electrodes due to its reliable mechanical stability and electrical conductivity. After which separate methods were used to apply the active redox species. For the preparation of the anode, zinc was loaded by an electroplating process to the mesh. For the cathode, catalyst ink solution was spray coated with an airbrush for desired dimensions. An alkaline gel electrolyte layer was used for the electrolyte. Microscale domain control of the materials becomes a crucial factor for fabricating transparent batteries. As for the presented cell, anionic exchange polymer layer has been uniquely incorporated on to the cathode mesh as the separator which becomes a key procedure in the fabrication process for obtaining the desired optical properties of the battery. The ionic resin is applied in a fashion where controlled voids exist between the openings of the grid which facilitates light passage while guaranteeing electrical insulation between the electrodes. Further analysis correlates the electrode dimensions to the transparency of the system. Recorded average light transmittance is 48.8% in the visible light region and exhibited a maximum power density of 9.77 mW/cm2. The produced battery shows both transparent and flexible properties while maintaining a stable discharge/charge operation.
机译:制造了第一个透明的可弯曲二次锌空气电池。透明不锈钢网由于其可靠的机械稳定性和导电性而被用作电极的集电器。之后,使用单独的方法来施加活性氧化还原物质。为了制备阳极,通过电镀工艺将锌加载到筛网上。对于阴极,用喷枪将催化剂墨水溶液喷涂到所需尺寸。碱性凝胶电解质层用作电解质。材料的微尺度域控制成为制造透明电池的关键因素。对于提出的电池,已经将阴离子交换聚合物层独特地结合到阴极网上作为隔膜,这成为制造过程中获得电池所需光学特性的关键步骤。离子型树脂的施加方式是,在网格的开口之间存在受控的空隙,这有利于光通过,同时确保电极之间的电绝缘。进一步的分析将电极尺寸与系统的透明度相关联。在可见光区域记录的平均透光率为48.8%,最大功率密度为9.77 mW / cm 2 。所生产的电池在保持稳定的放电/充电操作的同时显示出透明和柔韧性。

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