A facile way for scalable fabrication of silver nanowire network electrodes for high-performance and foldable smart windows
Journal of materials chemistry A, 2020•pubs.rsc.org
Large-area, free-standing silver (Ag) nanowire (NW) transparent conductive electrodes
(TCEs) are fabricated by a facile and high-throughput automatic-blade-coating assembly
technique, enabled by the use of a flexible and transparent polymer matrix. Such developed
TCEs exhibit high transparency, excellent conductivity, superior flexibility, long-term stability
and strong structural integrity. The excellent flexibility allows the TCEs to be bent> 10 000
times without any performance degradation. As a proof of concept, these TCEs are used to …
(TCEs) are fabricated by a facile and high-throughput automatic-blade-coating assembly
technique, enabled by the use of a flexible and transparent polymer matrix. Such developed
TCEs exhibit high transparency, excellent conductivity, superior flexibility, long-term stability
and strong structural integrity. The excellent flexibility allows the TCEs to be bent> 10 000
times without any performance degradation. As a proof of concept, these TCEs are used to …
Large-area, free-standing silver (Ag) nanowire (NW) transparent conductive electrodes (TCEs) are fabricated by a facile and high-throughput automatic-blade-coating assembly technique, enabled by the use of a flexible and transparent polymer matrix. Such developed TCEs exhibit high transparency, excellent conductivity, superior flexibility, long-term stability and strong structural integrity. The excellent flexibility allows the TCEs to be bent >10 000 times without any performance degradation. As a proof of concept, these TCEs are used to fabricate flexible suspended particle devices (SPDs) for smart window applications. Our devices show a large change in their optical transmittance (60.2%) and fast switching time (21 s) as well as excellent stability, comparable to the best SPD performance data reported in the literature. Moreover, significantly better than commercial TCE-based devices, the SPDs based on our TCEs show excellent mechanical flexibility, which can be folded by 180° for more than 200 cycles without any obvious performance degradation. The present method for fabricating large area and ultra-flexible Ag NW TCEs may be extended to fabricate various NW-based nonplanar or curved electronic/optoelectronic devices in the future.
The Royal Society of Chemistry