Advancing Textile Membranes through Simulation, Functionalization, and AI‐Assisted Structural Monitoring

Abstract This study presents the development of a functional membrane monitoring system integrating sensor networks into textile membranes for real‐time structural health monitoring. The approach combined finite element method (FEM) simulations for stress analysis with textile‐integrated strain sensors based on silver‐coated polyamide, precision resistance alloys and shape memory alloys. A regressive AI model was developed and trained using 840 data sets from FEM data and experimental data. The system achieved a 0–10 % strain measurement range with less than 0.25 % uncertainty, 100 stress values per square meter spatial resolution, one‐second real‐time response, and over 95 % reliability for defect detection including cracks and delamination. The functional demonstrator validates AI‐driven membrane monitoring with applications in architecture, energy, and safety sectors, demonstrating scalable potential for smart structural systems.

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Publication Details

Journal
ce/papers
Published
2026-09-30
DOI
https://doi.org/10.1002/cepa.71041
Primary Topic
Advanced Sensor and Energy Harvesting Materials
Type
article
Field-Weighted Citation Impact
0.00
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Advancing Textile Membranes through Simulation, Functionalization, and AI‐Assisted Structural Monitoring

Happel Anna, Karl Kopelmann, Hung Le Xuan, Tobias Lang et al.
ce/papers
Advanced Sensor and Energy Harvesting Materials
article

Advancing Textile Membranes through Simulation, Functionalization, and AI‐Assisted Structural Monitoring

Happel Anna, Karl Kopelmann, Hung Le Xuan, Tobias Lang, Florian Schmidt, Chokri Cherif
article en

Abstract

Abstract This study presents the development of a functional membrane monitoring system integrating sensor networks into textile membranes for real‐time structural health monitoring. The approach combined finite element method (FEM) simulations for stress analysis with textile‐integrated strain sensors based on silver‐coated polyamide, precision resistance alloys and shape memory alloys. A regressive AI model was developed and trained using 840 data sets from FEM data and experimental data. The system achieved a 0–10 % strain measurement range with less than 0.25 % uncertainty, 100 stress values per square meter spatial resolution, one‐second real‐time response, and over 95 % reliability for defect detection including cracks and delamination. The functional demonstrator validates AI‐driven membrane monitoring with applications in architecture, energy, and safety sectors, demonstrating scalable potential for smart structural systems.

ce/papersVol. 9(4-5)
Openalex Percentile: Top 22%
Advanced Sensor and Energy Harvesting Materials
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Advancing Textile Membranes through Simulation, Functionalization, and AI‐Assisted Structural Monitoring — Happel Anna, Karl Kopelmann, et al. · ce/papers (2026) | TGRS Research Map | TGRS