首页> 外文期刊>Journal of Macromolecular Science. Physics >Annealing Effect on Chain Segment Motion and Charge Trapping and Detrapping in Nylon 1010
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Annealing Effect on Chain Segment Motion and Charge Trapping and Detrapping in Nylon 1010

机译:退火对尼龙1010中链段运动以及电荷陷阱和去陷阱的影响

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摘要

The chain segment motion and charge trapping and detrapping in nylon 1010 films were investigated by means of thermally stimulated depolarization current (TSDC). There were three current peaks (named α, ρ1, and ρ2 peaks, respectively) in the experimental TSDC spectra above room temperature. The α peak is attributed to a background dipole relaxation by the motion of chain segments and space charge contribution, the ρ1 peak is originated from a space charge trapped in the bulk amorphous regions and the interphase between crystalline and amorphous regions, the ρ2 peak is originated from space charge trapped in crystalline regions. By analyzing the characteristic parameters of these peaks, it was found that with in increase of the degree of crystallinity the activation energy of the a peak increased from 1.12 to 1.22 eV and the trap depth of the ρ2 peak increased from 2.70 to 2.82 eV, while the trap depth of the ρ1 peak decreased from 1.50 to 1.29 eV. Annealing induced a decrease of the chain segment mobility and promoted the creation of traps in nylon 1010. Annealing also decreased the stability of the trapped charges in the bulk amorphous and the interphase regions and increased the stability of the trapped charges in the crystalline regions.
机译:通过热激发去极化电流(TSDC)研究了尼龙1010薄膜的链段运动以及电荷的俘获和去俘获。室温以上的实验TSDC光谱中存在三个电流峰(分别称为α,ρ1和ρ2峰)。 α峰归因于链段运动和空间电荷贡献而引起的背景偶极弛豫,ρ1峰源自捕获在主体非晶区中的空间电荷以及晶态和非晶区之间的相间,ρ2峰源自来自被困在晶体区域的空间电荷。通过分析这些峰的特征参数,发现随着结晶度的增加,峰的活化能从1.12 eV增加到1.22 eV,而ρ2峰的陷阱深度从2.70 e 2.82 eV增加,而ρ1峰的陷阱深度从1.50 eV降低到1.29 eV。退火导致链段迁移率降低,并促进了尼龙1010中陷阱的产生。退火还降低了主体非晶态和相间区域中捕获电荷的稳定性,并增加了结晶区域中捕获电荷的稳定性。

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