InGaZnO‐Based Thin‐Film Thermistors on PEEK Fabric for Green Smart Textiles

Abstract Electronic textiles (e‐textiles) have recently achieved outstanding results, allowing fast and reliable systems to be directly integrated into fabrics and threads. However, based on the environmental impact of these systems, the improvement of their limited End‐of‐Life (EoL) strategies is nowadays a major challenge. For this reason, the development of a circular technology for the realization of e‐textiles, aiming at waste reduction and support of materials recycling, is highly required. Herein, an innovative and fully recyclable integration of thin‐film electronics on a biocompatible polyether ether ketone (PEEK) fabric is presented. Specifically, three different configuration of InGaZnO‐based thin‐film thermistors are investigated, comparing their capabilities and sustainability. The devices are characterized over a temperature range from 25 to ; besides their thermal response, reliable functionality under bending stress and for NO 2 gas detection are proven. To demonstrate a circular and yet green approach, the devices are dissolved in water and the textile substrate is reused for a 2 nd generation of thin‐film sensors, achieving comparable performances with respect to the 1 st generation ones. This work represents a first comprehensive analysis of thin‐film thermistors integrated with textiles for the realization of breathable, flexible, and recyclable e‐textiles, with applications for daily routine, ranging from automotive to human health monitoring.

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Publication Details

Journal
Advanced Electronic Materials
Published
2025-09-12
DOI
https://doi.org/10.1002/aelm.202500146
Primary Topic
Electrical and Thermal Properties of Materials
Type
article
Field-Weighted Citation Impact
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article

InGaZnO‐Based Thin‐Film Thermistors on PEEK Fabric for Green Smart Textiles

Michael Haller, Albert Heinrich Lanthaler, Sahira Vásquez, Niko Münzenrieder et al.
Advanced Electronic Materials
Electrical and Thermal Properties of Materials
article

InGaZnO‐Based Thin‐Film Thermistors on PEEK Fabric for Green Smart Textiles

Michael Haller, Albert Heinrich Lanthaler, Sahira Vásquez, Niko Münzenrieder, Giuseppe Cantarella, Luisa Petti, Riccardo Zamboni
article en

Abstract

Abstract Electronic textiles (e‐textiles) have recently achieved outstanding results, allowing fast and reliable systems to be directly integrated into fabrics and threads. However, based on the environmental impact of these systems, the improvement of their limited End‐of‐Life (EoL) strategies is nowadays a major challenge. For this reason, the development of a circular technology for the realization of e‐textiles, aiming at waste reduction and support of materials recycling, is highly required. Herein, an innovative and fully recyclable integration of thin‐film electronics on a biocompatible polyether ether ketone (PEEK) fabric is presented. Specifically, three different configuration of InGaZnO‐based thin‐film thermistors are investigated, comparing their capabilities and sustainability. The devices are characterized over a temperature range from 25 to ; besides their thermal response, reliable functionality under bending stress and for NO 2 gas detection are proven. To demonstrate a circular and yet green approach, the devices are dissolved in water and the textile substrate is reused for a 2 nd generation of thin‐film sensors, achieving comparable performances with respect to the 1 st generation ones. This work represents a first comprehensive analysis of thin‐film thermistors integrated with textiles for the realization of breathable, flexible, and recyclable e‐textiles, with applications for daily routine, ranging from automotive to human health monitoring.

Advanced Electronic MaterialsVol. 11(18)
University of Modena and Reggio Emilia (IT), Free University of Bozen-Bolzano (IT), Istituto Nanoscienze (IT)
Openalex Percentile: Top 76%
Electrical and Thermal Properties of Materials
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