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使用低成本传感器的太阳能电池板串预测性和参数性故障诊断

Solar Panels String Predictive and Parametric Fault Diagnosis Using Low-Cost Sensors.

作者信息

García Emilio, Ponluisa Neisser, Quiles Eduardo, Zotovic-Stanisic Ranko, Gutiérrez Santiago C

机构信息

Instituto de Automática e Informática Industrial, Universitat Politècnica de València, Camino de Vera, s/n, 46022 Valencia, Spain.

Instituto de Diseño y Fabricación (IDF), Universitat Politècnica de València, Camino de Vera, s/n, 46022 Valencia, Spain.

出版信息

Sensors (Basel). 2022 Jan 3;22(1):332. doi: 10.3390/s22010332.

DOI:10.3390/s22010332
PMID:35009874
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC8749519/
Abstract

This work proposes a method for real-time supervision and predictive fault diagnosis applicable to solar panel strings in real-world installations. It is focused on the detection and parametric isolation of fault symptoms through the analysis of the Voc-Isc curves. The method performs early, systematic, online, automatic, permanent predictive supervision, and diagnosis of a high sampling frequency. It is based on the supervision of predictive electrical parameters easily accessible by the design of its architecture, whose detection and isolation precedes with an adequate margin of maneuver, to be able to alert and stop by means of automatic disconnection the degradation phenomenon and its cumulative effect causing the development of a future irrecoverable failure. Its architecture design is scalable and integrable in conventional photovoltaic installations. It emphasizes the use of low-cost technology such as the ESP8266 module, ASC712-5A, and FZ0430 sensors and relay modules. The method is based on data acquisition with the ESP8266 module, which is sent over the internet to the computer where a SCADA system (iFIX V6.5) is installed, using the Modbus TCP/IP and OPC communication protocols. Detection thresholds are initially obtained experimentally by applying inductive shading methods on specific solar panels.

摘要

这项工作提出了一种适用于实际安装中的太阳能电池板串的实时监测和预测性故障诊断方法。它专注于通过分析Voc-Isc曲线来检测故障症状并进行参数隔离。该方法能进行早期、系统、在线、自动、持续的预测性监测以及高采样频率的诊断。它基于对易于通过其架构设计获取的预测性电气参数的监测,这些参数的检测和隔离具有足够的操作裕度,以便能够通过自动断开连接来发出警报并阻止导致未来不可恢复故障发展的退化现象及其累积效应。其架构设计在传统光伏装置中具有可扩展性和可集成性。它强调使用低成本技术,如ESP8266模块、ASC712 - 5A、FZ0430传感器和继电器模块。该方法基于通过ESP8266模块进行数据采集,采集后的数据使用Modbus TCP/IP和OPC通信协议通过互联网发送到安装有SCADA系统(iFIX V6.5)的计算机。检测阈值最初通过在特定太阳能电池板上应用感应遮蔽方法通过实验获得。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/053d/8749519/baf759512de5/sensors-22-00332-g015.jpg
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