基于PVsyst软件的节能街道照明系统混合光伏结构设计

M. Tamoor, A. R. Bhatti, Muhammad Farhan, S. Miran, Faakhar Raza, M. Zaka
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引用次数: 10

摘要

随着传统化石燃料的枯竭、对环境的灾难性影响以及成本的不断上升,光伏等可再生能源作为可持续的清洁发电方式迅速崛起。光伏系统的性能取决于不同的因素,如光伏组件的类型、辐射电位和地理位置。本研究利用PVsyst仿真软件设计并仿真了一种用于运行节能路灯系统的混合光伏系统。仿真分析了混合动力系统的月/年发电量(kWh)和比发电量(kWh/KWp)。此外,还研究了各种光伏系统损耗。混合光伏系统有4串并联,每串有13串串联(单晶400w加拿大太阳能)光伏组件。储能系统由16节南都(AcmeG 12 V 200)电池组成,标称容量为1600 Ah。仿真结果表明,计算出的年总发电量为26.68 MWh/年,比发电量为1283 kWh/kWp/年。模拟结果还表明,6月份向电网注入的能量最大,为1.814 MWh; 1月份向电网注入的能量最小,为0.848 MWh。电池循环状态磨损率为84.8%,静态状态磨损率为91.7%。性能比(PR)分析表明,12月混合动力光伏系统的最高性能比为68.2%,5月混合动力光伏系统的最低性能比为62.7%,混合动力光伏系统的年平均性能比为65.57%。在确定了能源损失的主要来源后,计算了全年的详细损失,并用损失图表示出来。为了评估拟议系统的成本效益,进行了简单的投资回收期计算。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Designing of a Hybrid Photovoltaic Structure for an Energy-Efficient Street Lightning System Using PVsyst Software
With the depletion of traditional fossil fuels, their disastrous impact on the environment and rising costs, renewable energy sources such as photovoltaic (PV) energy are rapidly emerging as sustainable and clean sources of power generation. The performance of photovoltaic systems is based on different factors such as the type of photovoltaic modules, irradiation potential and geographic location. In this research, PVsyst simulation software is used to design and simulate a hybrid photovoltaic system used to operate energy-efficient street lightning system. The simulation is performed to analyze the monthly/annual energy generated (kWh) by the hybrid system and specific power production (kWh/KWp). Additionally, various PV system losses are also investigated. The hybrid PV system has 4 parallel strings, and each string has 13 series-connected (mono crystalline 400 W Canadian Solar) PV modules. The energy storage system consists of 16 Narada (AcmeG 12 V 200) batteries with a nominal capacity of 1600 Ah. The simulation results show that the total annual energy production and specific energy production, were calculated to be 26.68 MWh/year and 1283 kWh/kWp/year, respectively. Simulation results also show the maximum energy injected into the utility grid in the month of June (1.814 MWh) and the minimum energy injected into the utility grid in the month of January (0.848 MWh). The battery cycle state of wear is 84.8%, and the static state of wear is 91.7%. Performance ratio (PR) analysis shows that the highest performance ratio of the hybrid system was 68.2% in December, the lowest performance ratio was 62.7% in May and the annual average performance ratio of a hybrid PV system is 65.57%. After identifying the major source of energy losses, the detailed losses for the whole year were computed and shown by the loss diagrams. To evaluate the cost effectiveness of the proposed system, a simple payback period calculation was performed.
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