Strong yet Flexible TiC-SiC Fibrous Membrane with Long-Time Ultrahigh Temperature Resistance for Sensing in Extreme Environment

The demand for sensors capable of operating in extreme environment of the fields, such as aerospace vehicles, aeroengines and fire protection, is rapidly increasing. However, developing flexible ceramic fibrous pressure sensors that combine high temperature stability with robust mechanical properties remains a significant challenge. Herein, through precise multi-scale process control, high-strength (2.1 MPa) TiC-SiC flexible fibrous membrane is successfully fabricated. The membrane exhibits exceptional thermal resistance (2000 °C) and long-term thermal stability (1800 °C for 5 h) in the inert atmosphere. Meanwhile, the TiC-SiC fibrous membrane shows excellent oxidation resistance and still achieves strength of 1.8 MPa after being oxidized at 1200 °C for 1 h in air. Remarkably, TiC-SiC fibrous membrane withstands a load of approximately 1400 times its own weight and the ablation of butane flame (~ 1300 °C) for at least 1 h without breaking. Notably, after heat treatment at 1800 °C for 5 h in an argon atmosphere, the TiC-SiC fibrous membrane even sustains pressure-sensing performance for up to 300 cycles. The membrane exhibits stable resistivity up to 900 °C and shows sensing stability under butane flame. The results of this work provide an effective and feasible solution to fill the research gap of flexible fibrous sensors for extreme environments.

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Publication Details

Journal
Nano-Micro Letters
Published
2026-01-05
DOI
https://doi.org/10.1007/s40820-025-02019-1
Primary Topic
Advanced Sensor and Energy Harvesting Materials
Type
article
Field-Weighted Citation Impact
0.00

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article

Strong yet Flexible TiC-SiC Fibrous Membrane with Long-Time Ultrahigh Temperature Resistance for Sensing in Extreme Environment

Q. G. Chen, Yangzhong Zhao, X F Wang, Yi Shen et al.
Nano-Micro Letters
Advanced Sensor and Energy Harvesting Materials
article

Strong yet Flexible TiC-SiC Fibrous Membrane with Long-Time Ultrahigh Temperature Resistance for Sensing in Extreme Environment

Q. G. Chen, Yangzhong Zhao, X F Wang, Yi Shen, Zhenyu Zhao, Tianyue Yang, Yanzi Gou, Xue Zhou
article en

Abstract

The demand for sensors capable of operating in extreme environment of the fields, such as aerospace vehicles, aeroengines and fire protection, is rapidly increasing. However, developing flexible ceramic fibrous pressure sensors that combine high temperature stability with robust mechanical properties remains a significant challenge. Herein, through precise multi-scale process control, high-strength (2.1 MPa) TiC-SiC flexible fibrous membrane is successfully fabricated. The membrane exhibits exceptional thermal resistance (2000 °C) and long-term thermal stability (1800 °C for 5 h) in the inert atmosphere. Meanwhile, the TiC-SiC fibrous membrane shows excellent oxidation resistance and still achieves strength of 1.8 MPa after being oxidized at 1200 °C for 1 h in air. Remarkably, TiC-SiC fibrous membrane withstands a load of approximately 1400 times its own weight and the ablation of butane flame (~ 1300 °C) for at least 1 h without breaking. Notably, after heat treatment at 1800 °C for 5 h in an argon atmosphere, the TiC-SiC fibrous membrane even sustains pressure-sensing performance for up to 300 cycles. The membrane exhibits stable resistivity up to 900 °C and shows sensing stability under butane flame. The results of this work provide an effective and feasible solution to fill the research gap of flexible fibrous sensors for extreme environments.

Nano-Micro LettersVol. 18(1)
National University of Defense Technology (CN)
Nuclear Power Institute of China, National Natural Science Foundation of China, Science and Technology on Advanced Ceramic Fibers and Composites Laboratory
Openalex Percentile: Top 97%
Advanced Sensor and Energy Harvesting Materials
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Strong yet Flexible TiC-SiC Fibrous Membrane with Long-Time Ultrahigh Temperature Resistance for Sensing in Extreme Environment — Q. G. Chen, Yangzhong Zhao, et al. · Nano-Micro Letters (2026) | TGRS Research Map | TGRS