The Gecko Sensor: An Ultra-Compact, Low-Cost, Solar-Powered Environment Monitoring Device

Hongwei Li, Mingde Zheng, Michael S. Eggleston
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Abstract

The rise of IoT and 5G-powered cybernetic connectivity has drastically transformed our living environment with the rapid introduction of diverse and disaggregated sensing systems. A plethora of prototyping boards and development kits offering disparate environmental condition sensors have become available to promote DIY applications, but they require significant user programming and assembly. The adoption of commercial products on the other hand is largely limited by the high costs associated with device capability, installation and maintenance. These expenses are dominated by the power and connectivity requirements as well as long-term upkeep of device operations. To overcome these challenges, we developed an ultra-compact, low-cost and a fully packaged environmental sensing device capable of monitoring up to seven parameters at once that can be easily installed on any surface and recharges automatically with embedded solar energy harvesting. We believe this compact and power-efficient sensing device will provide an unobtrusive and cost-effective example for future distributed environment monitoring systems with a wide variety of applications.
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壁虎传感器:一种超紧凑、低成本、太阳能驱动的环境监测设备
物联网和5g驱动的控制论连接的兴起,随着多样化和分解传感系统的迅速引入,彻底改变了我们的生活环境。提供不同环境条件传感器的大量原型板和开发套件已经可以用于促进DIY应用,但它们需要大量的用户编程和组装。另一方面,商业产品的采用在很大程度上受到与设备能力、安装和维护有关的高成本的限制。这些费用主要是电力和连接需求以及设备运行的长期维护。为了克服这些挑战,我们开发了一种超紧凑、低成本、全封装的环境传感设备,能够一次监测多达7个参数,可以很容易地安装在任何表面上,并通过嵌入式太阳能收集自动充电。我们相信这种紧凑且节能的传感设备将为未来广泛应用的分布式环境监测系统提供一个不显眼且具有成本效益的示例。
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