Fabrication of Polymer Nanofiber-Conducting Polymer Fabric and Noncontact Motion Sensing Platform

Loading...

Date

Authors

Mutlu, Mustafa Umut
Demir, Mustafa Muammer
Yıldız, Ümit Hakan

Journal Title

Journal ISSN

Volume Title

Open Access Color

BRONZE

Green Open Access

Yes

OpenAIRE Downloads

OpenAIRE Views

Publicly Funded

No
Impulse
Average
Influence
Average
Popularity
Average

relationships.isProjectOf

relationships.isJournalIssueOf

Abstract

Conductive polymer-electrospun polymer nanofiber network was combined to host iron oxide nanoparticles providing micrometer thick sensing interface. The sensor has fabricated as freestanding fabric exhibiting 10 to 100 KOhm base resistivity upon bias applied. The moving object has been sensed through the electrostatic interactions between fibers and object. The sensing range has been found to be 1-5 cm above the surface of fabric. By the controlled combination of conductive polymers electrospun polymer nanofibers effective device miniaturization has been provided without loss of performance. The noncontact motion sensor platform has unique flexibility and light weight holding a potential for wearable sensor technology.

Description

10th Japanese-Mediterranean Workshop on Applied Electromagnetic Engineering for Magnetic, Superconducting, Multifunctional and Nano Materials, JAPMED’10 2017; Izmir; Turkey; 4 July 2017 through 8 July 2017

Keywords

Contactless sensing, Electrospunned nanofibers, Dielectric properties, Carbon nanotube, PEDOT:PSS, PSS [PEDOT], Electrospunned nanofibers, Dielectric properties, Contactless sensing, Carbon nanotube

Fields of Science

02 engineering and technology, 0210 nano-technology, 01 natural sciences, 0104 chemical sciences

Citation

Mutlu, M. U., Akın, O., Demir, M. M., and Yıldız, Ü. H. (2018). Fabrication of polymer nanofiber-conducting polymer fabric and noncontact motion sensing platform. In A.G. Mamalis, M. Enokizono, A.Kladas, T. Sawada, M. Güden and M. M. Demir (Eds.), Materials Science Forum: Applied Electromagnetic Engineering for Advanced Materials from Macro-to Nanoscale under Static-to Shock Loading, (pp. 207-212). Switzerland: Trans Tech Publications. doi:10.4028/www.scientific.net/MSF.915.207

WoS Q

Scopus Q

OpenCitations Logo
OpenCitations Citation Count
N/A

Volume

915

Issue

Start Page

207

End Page

212
PlumX Metrics
Citations

Scopus : 2

Captures

Mendeley Readers : 6

SCOPUS™ Citations

2

checked on Apr 28, 2026

Page Views

911

checked on Apr 28, 2026

Downloads

532

checked on Apr 28, 2026

Google Scholar Logo
Google Scholar™
OpenAlex Logo
OpenAlex FWCI
0.0

Sustainable Development Goals

SDG data is not available