Network structures of metal nanowires are a promising candidate for producing a wide range of flexible electronic devices, but only if they can be suitably patterned and retained on various materials. Here we present a new approach to the patterning of metal nanowires by employing intense-pulsed-light (IPL) irradiation to reduce the process to just two steps: irradiation and the subsequent removal of nonirradiated nanowires. This ultrasimple method eliminates the need to employ chemical reagents for etching or improving the adhesion of nanowires, and is compatible with Ag nanowires (AgNWs), Cu nanowires (CuNWs), and most transparent polymers. Furthermore, it is not reliant on additional processes, such as coating, heating, developing, and e...
Abstract Copper nanowires have the potential to reach and even exceed the indium tin oxide performan...
Metal nanowire networks are a promising concept for replacing ITO in transparent electrodes for a ra...
Silver nanowires (AgNWs) are excellent candidate electrode materials in next-generation wearable dev...
Network structures of metal nanowires are a promising candidate for producing a wide range of flexib...
We developed a simple methodology for fabricating silver nanowire (AgNW) micropatterns on a plastic ...
Ag nanowire (NW) networks have exquisite optical and electrical properties which make them ideal can...
Mechanical properties of transparent electrodes, including flexibility, are important in flexible el...
The lithographic process for flexible transparent electrodes is essential for constructing wearable ...
We here present a laser-patterning method that may solve the visibility problem associated with silv...
Conventional printing technologies such as inkjet, screen, and gravure printing have been used to fa...
Despite their high optical transparency and electrical conductivity, the commercialization of silver...
Patterning of silver nanowires (AgNWs) used in fabricating flexible and transparent electrodes (FTEs...
We present new flexible, transparent, and conductive coatings composed of an annealed silver nanowir...
The flashlight annealing process has been widely used in the field of flexible and printed electroni...
Silver nanowire (AgNW) electrodes attract significant attention in flexible and transparent optoelec...
Abstract Copper nanowires have the potential to reach and even exceed the indium tin oxide performan...
Metal nanowire networks are a promising concept for replacing ITO in transparent electrodes for a ra...
Silver nanowires (AgNWs) are excellent candidate electrode materials in next-generation wearable dev...
Network structures of metal nanowires are a promising candidate for producing a wide range of flexib...
We developed a simple methodology for fabricating silver nanowire (AgNW) micropatterns on a plastic ...
Ag nanowire (NW) networks have exquisite optical and electrical properties which make them ideal can...
Mechanical properties of transparent electrodes, including flexibility, are important in flexible el...
The lithographic process for flexible transparent electrodes is essential for constructing wearable ...
We here present a laser-patterning method that may solve the visibility problem associated with silv...
Conventional printing technologies such as inkjet, screen, and gravure printing have been used to fa...
Despite their high optical transparency and electrical conductivity, the commercialization of silver...
Patterning of silver nanowires (AgNWs) used in fabricating flexible and transparent electrodes (FTEs...
We present new flexible, transparent, and conductive coatings composed of an annealed silver nanowir...
The flashlight annealing process has been widely used in the field of flexible and printed electroni...
Silver nanowire (AgNW) electrodes attract significant attention in flexible and transparent optoelec...
Abstract Copper nanowires have the potential to reach and even exceed the indium tin oxide performan...
Metal nanowire networks are a promising concept for replacing ITO in transparent electrodes for a ra...
Silver nanowires (AgNWs) are excellent candidate electrode materials in next-generation wearable dev...