PDMS-encapsulated supercapacitor with an electrolyte being a liquid

P. Śliwiński, K. Laszczyk, B. Kozakiewicz
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引用次数: 1

Abstract

A supercapacitor (SC) stores the energy basing on physical phenomena resulting in the formation of an angstrom-thick electrical double layer between the electrode surface and liquid electrolyte. Thanks to this, the SCs offer a long lifetime (up to about 104 hours)and - regarding such parameters as energy and power densities - they are located between fast electrolytic capacitors and slow batteries [1, 2]. Therefore, the SCs are considered as a power supply for many tiny devices [3]. However, the issue is how to preserve their impressive performance as they are encapsulated. One of the potential solutions is to encapsulate the SC components in silicon-based polymer, polydimethylsiloxane (PDMS), which constitutes the substitute for glass with additional properties – flexibility and easily shaping by so-called mold technique [4–6]. So far in most of the present works gel- or solid-type electrolyte has been used. Because of their higher viscosity - compared to the liquid electrolyte – there is a facile control over an encapsulation process. On the other hand, it can not guarantee the as fast flow of ions between the electrodes as a liquid electrolyte. In a consequence, the high-rate charging of the SC is diminished.
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电解液为液体的pdms封装的超级电容器
超级电容器(SC)通过在电极表面和液体电解质之间形成埃厚的双电层的物理现象来存储能量。由于这一点,sc提供了很长的使用寿命(高达约104小时),并且-关于能量和功率密度等参数-它们位于快速电解电容器和慢速电池之间[1,2]。因此,sc被认为是许多微型设备的电源。然而,问题是如何在封装时保持它们令人印象深刻的性能。一种潜在的解决方案是将SC组件封装在硅基聚合物聚二甲基硅氧烷(PDMS)中,PDMS是玻璃的替代品,具有额外的特性-柔韧性和易于通过所谓的模具技术成型[4-6]。到目前为止,在大多数研究中都使用了凝胶型或固体型电解质。由于与液体电解质相比,它们的粘度更高,因此对封装过程的控制很容易。另一方面,它不能保证离子在电极之间像液体电解质那样快速流动。因此,SC的高速率充电减少了。
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