• 综述 •
廖金花, 高佳俊, 王宇超, 孙巍. 微结构化弹性体介电层的制备方法与应用[J]. 化学进展, 2021, 33(6): 975-987.
Jinhua Liao, Jiajun Gao, Yuchao Wang, Wei Sun. Preparation and Application of Micro-Structured Elastomer Dielectric Layer[J]. Progress in Chemistry, 2021, 33(6): 975-987.
微结构化弹性体薄膜是指在表面或内部具有多孔或者特殊造型阵列的微纳米尺寸结构的弹性体薄膜,这类薄膜作为功能化介电层在柔性电子器件的制备领域获得了广泛的应用。本文从微结构弹性体介电层的制备和应用两个方面来介绍微结构弹性体介电层的研究进展,首先介绍了可用以制备介电层的弹性体的种类,然后综述了多孔和非多孔阵列两大类微结构弹性体介电层的制备方法(氯化钠模板法、糖模板法、碳酸氢盐类模板法、微球模板法和硅模板法等);并介绍了微结构弹性体介电层在应力应变传感器和纳米发电机上的应用。
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Template method | Advantages | Disadvantages | Morphology of the structured elastomer | Representative work |
---|---|---|---|---|
Sugar template method | Simple preparation and low cost | If the sugar is not completely dissolved, it would introduce an undesirable viscosity in the dielectric layer | | Yang-Kyu Choi, et al[ |
Sodium chloride template method | Easy dispersion of templates within the elastomer | Poor manipulation on the pore morphology | | Yongtao Tian, et al[ |
Bicarbonate template method | Resulting product can be dissolved by water, no residue | The preparation process releases NH4 and CO2, not environment-friendly | | Qiulin Tan, et al[ |
Microsphere template method | Uniform pores | Templates are not easy to remove after the complete of templating | | Jeong Min Baik, et al[ |
Silicon template method | Uniform structures, and the mould can be used repeatedly | Complex and expensive manufacturing process, not conducive to mass production | | Zhenan Bao, et al[ |
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