Smart, electronic textiles are often exposed to tensile stress which can lead to fracture of the interwoven conducting yarns. In this study, a model is proposed to relate the extensibility of the conducting yarns to the weaving pattern of the textile – in particular to the thickness and pitch of the textile yarns. The model is validated by simultaneous mechanical and electrical tests on bare yarns extracted from several textiles. The results show that mechanical failure precedes electrical failure. Thus, a lower and conservative bound for electrical failure can be obtained from the extensibility prediction as a function of the structure of the weave
In order to improve comfort of smart garment, rigid electronic boards can be replaced with textile c...
Electronic textiles are an early developing hybrid system and require new standards of reliability a...
Electronic textiles (e-textiles) present a huge opportunity to incorporate wearable devices into tex...
Smart, electronic textiles are often exposed to tensile stress which can lead to fracture of the int...
Electrically conductive yarns (ECYs) are gaining increasing applications in woven textile materials,...
Electrically conductive yarns (ECYs) are gaining increasing applications in woven textile materials,...
The implementation of electronic textiles which are capable of being applied as electrodes, sensors ...
Electronic yarns contain electronic components which are fully embedded into the conductive yarn’s s...
E-textiles are specially engineered textiles that perform intelligent functions such as sensing and ...
Conductive fabrics usually exhibit two types of electrical resistance: the length-related resistance...
Recent smart textile fabrication methods that are aimed at increasing the integration of electronics...
Seam strength has a huge impact on the durability of the garment. Conductive yarn usage in a stitchi...
The drive for integration of electronic components into textile substrates has been a major aspect o...
Interactive textiles based on electrically conductive yarns are being extensively research due to it...
[[abstract]]Textiles can have valuable functions in terms of measurement, detection and communicatio...
In order to improve comfort of smart garment, rigid electronic boards can be replaced with textile c...
Electronic textiles are an early developing hybrid system and require new standards of reliability a...
Electronic textiles (e-textiles) present a huge opportunity to incorporate wearable devices into tex...
Smart, electronic textiles are often exposed to tensile stress which can lead to fracture of the int...
Electrically conductive yarns (ECYs) are gaining increasing applications in woven textile materials,...
Electrically conductive yarns (ECYs) are gaining increasing applications in woven textile materials,...
The implementation of electronic textiles which are capable of being applied as electrodes, sensors ...
Electronic yarns contain electronic components which are fully embedded into the conductive yarn’s s...
E-textiles are specially engineered textiles that perform intelligent functions such as sensing and ...
Conductive fabrics usually exhibit two types of electrical resistance: the length-related resistance...
Recent smart textile fabrication methods that are aimed at increasing the integration of electronics...
Seam strength has a huge impact on the durability of the garment. Conductive yarn usage in a stitchi...
The drive for integration of electronic components into textile substrates has been a major aspect o...
Interactive textiles based on electrically conductive yarns are being extensively research due to it...
[[abstract]]Textiles can have valuable functions in terms of measurement, detection and communicatio...
In order to improve comfort of smart garment, rigid electronic boards can be replaced with textile c...
Electronic textiles are an early developing hybrid system and require new standards of reliability a...
Electronic textiles (e-textiles) present a huge opportunity to incorporate wearable devices into tex...