U. A. Saleh, S. A. Jumaat, M. A. Johar, W. Jamaludin
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引用次数: 1
摘要
本文介绍了一种用于光伏热电混合型发电机(PV-TEG)的数据采集系统(DAQ)的设计和开发,该系统用于监测从PV-TEG源采集的系统参数并将其存储在大存储器中。DAQ是一种电子设备,通过基于时间的微控制器(DS1307实时时钟(RTC)芯片)收集和记录数据。它利用Arduino Mega 328P板和ATmega 328P芯片来监测系统参数,如电压、电流和功率在日志记录过程中的每一秒。混合动力系统包括200w面板和192teg串联和并联,以获得更高的输出功率。系统将原始数据转换为数字输入进行数据采集,并存储在安全数字卡(SD卡)上。测试了混合系统的性能。数据采集的结果表明,数据以1秒的更新周期存储在SD卡上。DAQ记录的最大系统参数值为混合系统39v, 4.9 A, PV子系统33v, 4.7 A, TEG子系统6v, 0.2 A。在$8\ \Omega$ 300 W的阻性负载下,计算出191.1 W的最大功率。这比PV子系统增加了15.38%。
Photovoltaic-Thermoelectric Generator Monitoring System using Arduino Based Data Acquisition system Technique
This paper presents the design and development of a data acquisition system (DAQ) for a hybrid photovoltaic-thermoelectric generator (PV-TEG) to monitor and store system parameters collected from the PV-TEG source in large memory storage. A DAQ is an electronic device that collects and records data through a time-based microcontroller (DS1307 Real-Time Clock (RTC) chip). It utilizes the Arduino Mega 328P board in conjunction with the ATmega 328P chip for monitoring the system parameters such as voltage, current and power every second of the logging process. The hybrid system comprises 200 W panels and a combination of 192 TEG connected in series and parallel for higher output power. The system converts the original data into digital input for data acquisition and stores it on a secure digital card (SD card). The hybrid system performance was examined. The results from the DAQ shows that data were stored on the SD Card at a 1-second update cycle. The DAQ recorded maximum system parameter values as 39 V, 4.9 A for the hybrid system, 33 V, 4.7 A for the PV subsystem, and 6 V, 0.2 A for the TEG subsystem. The maximum power of 191.1 W was computed across a resistive load of $8\ \Omega$, 300 W. This shows an increase of 15.38 % than the PV subsystem.