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PV Generator Performance Evaluation and Load Analysis of the PV Microgrid System in Thailand

机译:泰国光伏微电网系统的PV发电机性能评价及负荷分析

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Normally, the main generators of microgrid system use controllable energy resources such as fossil fuel, biomass, biogas, hydro, etc for uncomplicated control. However, it is very challenging to control the microgrid system that uses uncontrollable energy resources such as solar and wind for main generators of microgrid system because they have many advantages. From this point, the PV microgrid system is constructed and operated at School of Renewable Energy Technology (SERT), Naresuan University for research and development of the microgrid system that is supplying 50% of total electricity demand by PV main generator. By measuring the important parameters such as solar irradiance, PV array voltage, PV array current, and AC electrical power, these data were collected for a year from November 2008 to October 2009 to use in evaluation processes. The PV generator evaluation result is revealed that the average reference yield (Y_r), array yield (Y_A), and final yield (Y_f) are 5.21, 4.32, and 3.84 kWh/kW_p day respectively. The average total loss of the PV generator is 26.27 % that comes from summing up the average capture losses (L_C) 17.21 % and average system losses (L_s) 9.06 %. The average overall PV plant efficiency (η_(tot)) is 10.41 %, and the average performance ratio (PR) is 73.45 %. For load analysis of the microgrid, the total load is 231673 kWh/year or 635 kWh/day that the main loads of the microgrid are the real load and the battery storage loss. For the real load, it varies from 9803 to 22506 kWh/month and the average real load is 15434 kWh/month. However, the battery storage loss is really constant at 3888 kWh/month. When consider the load profile, it shows that the peak load period is 8 A.M. to 7 P.M. and the off peak load periods are 0 A.M. to 8 A.M. and 7 P.M. to 0 A.M. Moreover, the load in peak load period of working day is higher than day off but the load in off peak load period is not different. When compare the load profile with PV generator production, the load is 100% supplied by PV generator during 8 AM. to 4 P.M. in working day and 8 A.M. to 5 P.M. in day off. Moreover, PV generator generates the surplus energy 169 kWh/day in working day and 232 kWh/day in these periods.
机译:通常,微电网系统的主发电机使用可控的能量资源,如化石燃料,生物量,沼气,水电等,用于简单的控制。然而,控制使用无法控制的能源资源的微电网系统非常具有挑战性,因为它们具有微电网系统的主发电机,因为它们具有许多优点。从这一点来看,光伏微电网系统在可再生能源技术(SERT),位于纳雷斯滦大学学校的研发和开发MicroGrid系统的研制,供应PV主发电机的50%。通过测量太阳辐照度,PV阵列电压,PV阵列电流和交流电力等重要参数,从2008年11月到2009年10月在评估过程中收集了这些数据。 PV发生器评估结果显示平均参考产率(Y_R),阵列产量(Y_A)和最终产量(Y_F)分别为5.21,4.32和3.84千瓦时/ kW_P。 PV发生器的平均总损失为26.27%,从总结平均捕获损失(L_C)17.21%和平均系统损失(L_S)9.06%。平均整体光伏工厂效率(η_(Tot))为10.41%,平均性能比(PR)为73.45%。对于MicroGrid的负载分析,总负载是231673千瓦时/年或635千瓦时/日,微电网的主要负载是实际负载和电池存储损耗。对于实际负载,它从9803到22506千瓦时/月,平均实际负载为15434千瓦时/月。但是,电池存储损耗在3888千瓦时/月份真正恒定。当考虑负载概况时,它表明峰值负载周期为上午8。到下午7点而OFF峰值负载周期为0。到了上午8点。和7下午7点到0。此外,工作日的峰值负载周期的负载高于截止日,但峰值负载周期的负载不不同。在将负载曲线与PV发生器生产进行比较时,PV发电机在8点期间,负载为100%。到下午4点在工作日和上午8点。到下午5点在休息日。此外,PV发生器在这些时段中产生工作日中的剩余能量169千瓦时/日/天。

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