Ryan A Kim, Andrew J E Kent, Jordan D Noey, Kimberlee J Kearfott
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A Raspberry Pi 4 microcomputer interfaces through RJ11 and RJ45 connectors to these and other sensors. Custom-designed circuits were implemented on printed circuit boards supporting sensor chips for temperature, pressure, humidity, and air electrical resistance. The outdoor board communicates with ultraviolet light, soil moisture, and temperature sensors, relaying data using wired connections indoors where a Raspberry Pi 4 and indoor circuit board are located. The indoor board employs wireless internet protocol to communicate with a homemade Geiger-Mueller counter and a consumer-grade temporal radon monitor. The system employs an internet connection to transfer data to a cloud-based storage system. This enables a website with continuously updated pages dedicated to each established system to display collected data. Weatherproofed fused filament fabricated indoor and outdoor cases were designed. 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引用次数: 0
摘要
摘要:将传统的气象站与辐射监测仪相结合,可引起公众对本底辐射及其典型变化的关注,同时还可提供核电厂事故或恐怖行动等意外辐射释放的早期迹象。目前已有几个气象和辐射监测传感器组合网络,但这些网络的价格并不适合广泛传播。这项工作包括创建一个负担得起的系统,将多个地点的数据积累到一个开源数据库中。因此,收集到的数据可作为中学生的友好数据库。该系统是围绕一个廉价的传感器套件设计的,包括杯式风速计、风向标和尖桶式雨量计。Raspberry Pi 4 微型计算机通过 RJ11 和 RJ45 连接器与这些传感器和其他传感器连接。定制设计的电路安装在印刷电路板上,支持温度、压力、湿度和空气电阻传感器芯片。室外电路板与紫外线、土壤湿度和温度传感器通信,通过有线连接将数据转发到室内,Raspberry Pi 4 和室内电路板位于室内。室内电路板采用无线互联网协议与自制的盖革-穆勒计数器和消费级临时氡监测仪进行通信。该系统利用互联网连接将数据传输到云存储系统。这样,一个专门针对每个已建立的系统不断更新页面的网站就可以显示收集到的数据。设计了防风雨的熔丝室内和室外外壳。对传感器的功能和准确性进行了测试。
Abstract: Combining a traditional weather station with radiation monitors draws the public's attention to the magnitude of background radiation and its typical variation while providing early indications of unplanned radiological releases, such as nuclear power plant accidents or terrorist acts. Several networks of combined weather and radiation monitoring sensors exist, but these fail to be affordable for broad distribution. This work involves creating an affordable system to accumulate data from multiple locations into a single open-source database. The data collected should thus serve as a friendly database for high school students. The system is designed around an inexpensive sensor package featuring a cup anemometer, wind direction vane, and tip bucket rain gauge. A Raspberry Pi 4 microcomputer interfaces through RJ11 and RJ45 connectors to these and other sensors. Custom-designed circuits were implemented on printed circuit boards supporting sensor chips for temperature, pressure, humidity, and air electrical resistance. The outdoor board communicates with ultraviolet light, soil moisture, and temperature sensors, relaying data using wired connections indoors where a Raspberry Pi 4 and indoor circuit board are located. The indoor board employs wireless internet protocol to communicate with a homemade Geiger-Mueller counter and a consumer-grade temporal radon monitor. The system employs an internet connection to transfer data to a cloud-based storage system. This enables a website with continuously updated pages dedicated to each established system to display collected data. Weatherproofed fused filament fabricated indoor and outdoor cases were designed. Sensor functions were tested for functionality and accuracy.
期刊介绍:
Health Physics, first published in 1958, provides the latest research to a wide variety of radiation safety professionals including health physicists, nuclear chemists, medical physicists, and radiation safety officers with interests in nuclear and radiation science. The Journal allows professionals in these and other disciplines in science and engineering to stay on the cutting edge of scientific and technological advances in the field of radiation safety. The Journal publishes original papers, technical notes, articles on advances in practical applications, editorials, and correspondence. Journal articles report on the latest findings in theoretical, practical, and applied disciplines of epidemiology and radiation effects, radiation biology and radiation science, radiation ecology, and related fields.