We propose a fabrication process for extremely robust and easily patternable silver nanowire (AgNW) electrodes on paper. Using an auxiliary donor layer and a simple laminating process, AgNWs can be easily transferred to copy paper as well as various other substrates using a dry process. Intercalating a polymeric binder between the AgNWs and the substrate through a simple printing technique enhances adhesion, not only guaranteeing high foldability of the electrodes, but also facilitating selective patterning of the AgNWs. Using the proposed process, extremely crease-tolerant electronics based on copy paper can be fabricated, such as a printed circuit board for a 7-segment display, portable heater, and capacitive touch sensor, demonstrating t...
We propose an embedded reverse-offset printing (EROP) method, which generates silver nanowire (AgNW)...
For foldable electronic devices of the future, most components should have very good flexibility and...
Silver nanowires (AgNWs) are excellent candidate electrode materials in next-generation wearable dev...
Transparent microelectrodes with high bendability are necessary to develop lightweight, small electr...
Conventional printing technologies such as inkjet, screen, and gravure printing have been used to fa...
Silver nanowires (AgNWs) have inspired many research interests due to their better properties in opt...
Paper-based capacitive touch pads can be fabricated utilizing high-concentration silver nanowire ink...
Abstract Gravure printing is a promising technique for large-scale printed electronics. However, gra...
Mechanically ultra-robust, transparent and flexible electrodes assembled from silver nanowires (Ag N...
A simple programmable contact printing method using ballpoint pens with silver nanoparticle (AgNP) a...
The roll-to-roll process is synonymous with newspaper production. If a similar high-throughput proce...
We propose a versatile yet practical transferring technique to fabricate a high performance and extr...
Simple, universally adaptable techniques for fabricating conductive patterns are required to transla...
Direct stamping of silver nanoparticle based ink has been developed for cost-effective and process-e...
We propose an embedded reverse-offset printing (EROP) method, which generates silver nanowire (AgNW)...
For foldable electronic devices of the future, most components should have very good flexibility and...
Silver nanowires (AgNWs) are excellent candidate electrode materials in next-generation wearable dev...
Transparent microelectrodes with high bendability are necessary to develop lightweight, small electr...
Conventional printing technologies such as inkjet, screen, and gravure printing have been used to fa...
Silver nanowires (AgNWs) have inspired many research interests due to their better properties in opt...
Paper-based capacitive touch pads can be fabricated utilizing high-concentration silver nanowire ink...
Abstract Gravure printing is a promising technique for large-scale printed electronics. However, gra...
Mechanically ultra-robust, transparent and flexible electrodes assembled from silver nanowires (Ag N...
A simple programmable contact printing method using ballpoint pens with silver nanoparticle (AgNP) a...
The roll-to-roll process is synonymous with newspaper production. If a similar high-throughput proce...
We propose a versatile yet practical transferring technique to fabricate a high performance and extr...
Simple, universally adaptable techniques for fabricating conductive patterns are required to transla...
Direct stamping of silver nanoparticle based ink has been developed for cost-effective and process-e...
We propose an embedded reverse-offset printing (EROP) method, which generates silver nanowire (AgNW)...
For foldable electronic devices of the future, most components should have very good flexibility and...
Silver nanowires (AgNWs) are excellent candidate electrode materials in next-generation wearable dev...