All-printed ZnO nanowire based high performance photodetectors

Sihang Ma, A. Dahiya, Adamos Christou, R. Dahiya
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引用次数: 2

Abstract

Resource-efficient manufacturing of electronics is needed to reduce the environmental impact of wasteful conventional electronic fabrication processes. This paper presents a resource-efficient printed electronics route for the fabrication of zinc oxide (ZnO) nanowire (NW) based high performance photodetectors (PDs). The all-printed devices are realised with high-quality as-grown ZnO NWs integrated onto flexible polyimide substrates using a contact printing method. An optimised high-resolution extrusion printer is employed to define the sensing channel (~15µm) using high viscosity silver (Ag) nanoparticle paste (>100,000 cP). The miniaturised all-printed PDs on PI substrates exhibit high-performance for UV detection with extremely high responsivity (~3 ×107 A/W), specific detectivity (~1017 jones), photoconductive gain (~108), external quantum efficiency (~1010 %) and Ilight/Idark ratio (~103). The presented work demonstrates a potential route for next-generation of sustainable electronics manufacturing, which is needed to alleviate the problem of chemical-wastage while retaining the transformative power of electronics.
基于全印刷ZnO纳米线的高性能光电探测器
为了减少浪费的传统电子制造过程对环境的影响,需要资源高效的电子制造。本文提出了一种资源高效的印刷电子技术路线,用于制造基于氧化锌纳米线的高性能光电探测器(PDs)。采用接触印刷方法,将高质量的生长ZnO NWs集成到柔性聚酰亚胺基板上,实现了全印刷器件。采用高粘度银(Ag)纳米颗粒浆料(>100,000 cP),采用优化的高分辨率挤出打印机定义传感通道(~15µm)。在PI基板上的小型化全印刷pd具有极高的紫外检测性能,具有极高的响应率(~3 ×107 A/W),比探测率(~1017 jones),光导增益(~108),外量子效率(~ 1010%)和光/暗比(~103)。所提出的工作展示了下一代可持续电子制造的潜在途径,这是在保持电子产品变革力量的同时缓解化学浪费问题所需要的。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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