文献检索

查找使用阿拉丁产品的科研文献

检索与阿拉丁产品相关的同行评审论文、DOI、PubMed 编号、期刊、作者、CAS 号及研究领域。

科研影响力快照

与阿拉丁产品相关的已发表科研成果

在搜索之前,这些指标可帮助访客快速了解产品关联科研的规模与质量。

347,358+ SCI 论文 与阿拉丁产品引用相关
2,303,472.95 总影响因子 匹配文献记录中影响因子的总和
81.20 最高期刊影响因子 匹配期刊中的最高 IF
6.63 平均期刊影响因子 匹配文献的平均 IF

参考指标 指标基于阿拉丁文献引用数据库及期刊影响因子记录。文献关联仅供科研参考,请以原始文献为准。

产品列表

视图 列表 网格

1 项目

设置提升方向
集成传感
SENSORS AND ACTUATORS A-PHYSICAL · 2021 · IF 3.407

Single flexible nanofibers to achieve simultaneous construction of piezoelectric elements and nanoresistance networks for tiny force sensing

Wenbo Jiang,Kongsen Hu,Nan Lv,Zhiwei Lyu

Existing piezoelectric sensing materials usually rely on top and bottom planar electrodes to achieve the assembly of piezoelectric sensors , restricting their application due to the limitation of flexibility and miniaturization as well as time-consuming and costly multi-steps preparation. Here, we report a simple strategy to synchronously construct piezoelectric elements and nanoresistance networks via fabricating single PAN/PANI/PVP piezoelectric-conductive nanofibers (NFs) by electrospinning. By virtue of PAN as piezoelectric elements and PANI/PVP as nanoresistance networks, the flexible PAN/PANI/PVP piezoelectric-conductive NFs as an integrated sensing system can timely collect and output voltage based on Wheatstone bridge principle. The pressure sensing potential of flexible PAN/PANI/PVP integrated nanofibers membrane (INFM) is systematically explored and evaluated. The valid contact and adhesion of piezoelectric elements and nanoresistance networks improve effective polarization and collection of induced charges, enhancing piezoelectric output performance. Moreover, it enables the INFM to perceive tiny force with high-precision sensitivity (667 mV N −1 ) down to approximately 0.05 N while retaining a linear relationship. Thus, our research opens a simple route to design integrated sensing materials with nanoscale , high-sensitivity, lightweight and low-cost, making them attractive candidates in the potential application in micro-/nanoscale sensors and wearable electronics .

研究领域: 生物医学工程 · 纳米医学 · 柔性电子学 · 传感器技术 · 可穿戴设备 · 功能材料 · 微纳系统
✓ 已验证 DOI 高影响因子
查看原文 查看 PubMed
已复制

文献关联基于可获得的产品、CAS、DOI 及引用记录。收录不代表作者或出版方对阿拉丁产品的背书,请以原始文献为准。