02275nam 2200337zn 450 991077463990332120240320090122.0(CKB)5470000000569913(NjHacI)995470000000569913(EXLCZ)99547000000056991320240320d2019 uy 0engur|||||||||||txtrdacontentcrdamediacrrdacarrierChapter Metallic nanowire percolating networks from main properties to applications /Ngoc Duy Nguyen[Place of publication not identified] :IntechOpen,2019.1 online resourceThere has been lately a growing interest into flexible, efficient and low-cost transparent electrodes which can be integrated for many applications. This includes several applications related to energy technologies (photovoltaics, lighting, supercapacitor, electrochromism, etc.) or displays (touch screens, transparent heaters, etc.) as well as Internet of Things (IoT) linked with renewable energy and autonomous devices. This associated industrial demand for low-cost and flexible industrial devices is rapidly increasing, creating a need for a new generation of transparent electrodes (TEs). Indium tin oxide has so far dominated the field of TE, but indium's scarcity and brittleness have prompted a search into alternatives. Metallic nanowire (MNW) networks appear to be one of the most promising emerging TEs. Randomly deposited MNW networks, for instance, can present sheet resistance values below 10 Ω/sq., optical transparency of 90% and high mechanical stability under bending tests. AgNW or CuNW networks are destined to address a large variety of emerging applications. The main properties of MNW networks, their stability and their integration in energy devices are discussed in this contribution.Chapter Metallic nanowire percolating networksNanotechnologySafety measuresNanotechnologySafety measures.620.5Nguyen Ngoc Duy1732466NjHacINjHaclBOOK9910774639903321Chapter Metallic nanowire percolating networks4146638UNINA