材料科学
铁电性
非易失性存储器
哈夫尼亚
光电子学
柔性电子器件
薄膜
弯曲半径
灵活的显示器
电容器
极化(电化学)
绝缘体(电)
基质(水族馆)
晶体管
薄膜晶体管
弯曲
纳米技术
电介质
复合材料
电压
电气工程
陶瓷
图层(电子)
物理化学
化学
工程类
地质学
立方氧化锆
海洋学
作者
Hyeonggeun Yu,Ching‐Chang Chung,Nate Shewmon,Szuheng Ho,Joshua H. Carpenter,Ryan Larrabee,Tianlei Sun,Jacob L. Jones,Harald Ade,Brendan T. O’Connor,Franky So
标识
DOI:10.1002/adfm.201700461
摘要
Next‐generation wearable electronics call for flexible nonvolatile devices for ubiquitous data storage. Thus far, only organic ferroelectric materials have shown intrinsic flexibility and processability on plastic substrates. Here, it is shown that by controlling the heating rate, ferroelectric hafnia films can be grown on plastic substrates. The resulting highly flexible capacitor with a film thickness of 30 nm yields a remnant polarization of 10 µC cm −2 . Bending tests show that the film ferroelectricity can be retained under a bending radius below 8 mm with up to 1000 bending cycles. The excellent flexibility is due to the extremely thin hafnia film thickness. Using the ferroelectric film as a gate insulator, a low voltage nonvolatile vertical organic transistor is demonstrated on a plastic substrate with an extrapolated date retention time of up to 10 years.
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