摘要
针对地磁房湿度高的现象,目前的主要方法是通过加装防潮玻璃罩和泡沫罩、定期更换除湿剂等人工手动处理的方式。本研究在郅红魁研制智能监控湿度系统思路的基础上,添加了智能开关与智能除湿两个应用,旨在通过远程智能温湿度监控、远程智能开关、除湿机一体化设备,实现快速精确的远程智能除湿。另外,本文收集了2020年以来3月~5月会昌台湿度、地磁观测数据,以便对比地磁房加入设备前后智能温湿度监控、除湿一体化设备的应用效果。主要包括四个方面:利用差值分析作为判断背景噪声的依据来分析地磁观测数据稳定情况;利用相关性分析来检验湿度对地磁观测数据的统计学关联以及关联强度和方向;利用回归性分析来分析湿度的变化如何影响地磁观测数据;利用非参数检验确定智能温湿度监控与除湿一体机除湿效果。
In view of the phenomenon of high humidity in the geomagnetic room, the current main method is to install moisture-proof glass cover and foam cover, regularly change dehumidifier and other manual treatments. On the basis of Hongkui Zhi’s idea of developing an intelligent humidity monitoring system, this research adds two applications, namely intelligent switch and intelligent dehumidification, aiming to achieve fast and accurate remote intelligent dehumidification through remote intelligent temperature and humidity monitoring, remote intelligent switch and dehumidifier integrated equipment. In addition, this paper collected the humidity and geomagnetic observation data of Huichang Station from March to May 2020, so as to compare the application effect of intelligent temperature and humidity monitoring and dehumidification integrated equipment before and after the geomagnetic room is equipped with equipment. It mainly includes four aspects: using difference analysis to judge the background noise to analyze the stability of geomagnetic observation data;the correlation analysis is used to test the statistical correlation between humidity and geomagnetic observation data, as well as the correlation strength and direction;regression analysis is used to analyze how the change of humidity affects the geomagnetic observation data;the dehumidification effect of intelligent temperature and humidity monitoring and dehumidification integrated machine is determined by nonparameter test.
出处
《地球科学前沿（汉斯）》
2022年第10期1317-1325,共9页
Advances in Geosciences
