基于丁腈橡胶和聚醚电解质的离子导电弹性体共混物的纳米有序海岛相分离

Y. Kubota, Y. Tominaga
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引用次数: 2

摘要

为了创造新的抗静电高分子材料,我们制备了由商用丁腈橡胶(丙烯腈含量分别为18%和33% (NBR18, NBR33))和聚醚电解质的纳米有序畴组成的离子导电弹性体共混物。在本研究中,我们采用溶剂铸造和机械混合两种不同的方法制备了混合样品。将低聚[(环氧乙烷)-co-(环氧丙烷)]甲基丙烯酸酯(M(EO/PO))混合在含KSCN的丁腈橡胶基体中进行聚合。所得弹性体共混物的电导率均在10−7 S cm−1以上,且铸态样品在干湿条件下的电导率差异非常小,其中NBR18共混物的干湿条件电导率比小于0.06。TEM图像表明,在不同湿度条件下,混合样品的海岛相分离顺序对离子导电性能有影响。此外,添加30 wt% PM(EO/PO)的NBR33样品的电导率为10−6 S cm−1,我们认为NBR33与聚醚电解质畴之间的大界面可能影响了电导率的提高。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Nano-Ordered Sea-Island Phase Separation of Ion-Conductive Elastomer Blends Based on NBR and Polyether Electrolytes
To create novel antistatic polymer materials, we prepared ion-conductive elastomer blends consisting of commercial NBR (with acrylonitrile (AN) content of 18 and 33% (NBR18, NBR33)) with nano-ordered domains of polyether electrolyte. In this study, we prepared blend samples using two different methods, solvent-casting and mechanical mixing methods. The oligo-[(ethylene oxide)-co-(propylene oxide)] methacrylate (M(EO/PO)) was mixed and polymerized in the NBR matrix including KSCN. Obtained elastomer blends showed relatively good conductivity more than 10−7 S cm−1 and the difference in the conductivity of the cast samples under dry and wet conditions was especially very small, and the ratio of conductivity under dry and wet condition of NBR18 blends was lower than 0.06. The TEM images indicated that the order of sea-island phase separation in blend samples may effect on the ion-conductive behavior under different humidity conditions. Moreover, the NBR33 with 30 wt% of PM(EO/PO) sample showed the conductivity of the order of 10−6 S cm−1, and we considered that the large interface between NBR33 and polyether electrolyte domains may effect the increase in the conductivity.
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