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光伏发电技术 储能系统 ★ 5.0

生物质-太阳能-风能-电网混合能源系统的最优容量配置及技术经济环境评估:印度南部某机构的案例研究

Optimal sizing and techno-economic-environmental evaluation of biomass-solar-wind-grid hybrid energy system: A case study of an institute in South India

作者 Beno Wincy Winslya1 · Vignesh Kumar Ramalingam · S. Joseph Sekhar · Arokia Jaswin Mari · Murugan Paradesi Chokkalingam · Vijayakumar Rajendran
期刊 Energy Conversion and Management
出版日期 2025年1月
卷/期 第 325 卷
技术分类 光伏发电技术
技术标签 储能系统
相关度评分 ★★★★★ 5.0 / 5.0
关键词 A biomass/solar/wind/grid hybrid system is economic in an educational institution.
语言:

中文摘要

摘要 教育机构基础设施的快速发展需要在校内引入可再生能源发电,以满足政府和国际能源机构的相关指导要求。已有许多研究评估了将太阳能和风能与电网电力结合使用,旨在以经济可行的方式将清洁能源整合到小规模应用中。然而,教育机构的用电负荷模式与其他应用场景存在差异,因此有必要开展专门研究,以有效利用现有能源资源。生物能源在风力较低或无日照时段提供电力方面具有显著优势。为此,本研究全面分析了在一所高等教育机构中实施包含生物质、太阳能、风能和电网能源的混合能源系统的可行性。采用混合优化软件工具‘HOMER PRO’对整个系统进行优化。该机构的日均用电需求和峰值负荷分别为813.86 kWh/天和128.21 kW。在本研究确定的八种系统配置中,一种包含387 kW太阳能光伏、20 kW风力涡轮机、4 kW生物质气化发电机以及电网支持的混合系统实现了95%的可再生能源渗透率。该优化系统的平准化度电成本为每千瓦时3.36印度卢比(约合0.040美元)。太阳能、风能和生物质能系统的单位发电成本分别为每千瓦时3.27印度卢比(0.039美元)、1.64印度卢比(0.02美元)和8.01印度卢比(0.096美元)。该系统每年可向电网售电3.66 MWh,并带来可观的投资回报。建设太阳能电站和风电场分别需要6000平方米和10000平方米的土地面积。由于减少了对电网电力的依赖,整个系统的年二氧化碳排放量降至21吨。此外,通过敏感性分析评估了资源可用性和成本变化对净现值成本及电价的影响。在其他地区实施所提出的系统时,需根据当地的资源数据和负荷特性对输入参数进行相应调整。

English Abstract

Abstract The rapid development of infrastructure in educational institutions needs the inclusion of on-campus renewable power generation to meet the guidelines of governments and international energy agencies. Several studies have evaluated the utilization of solar and wind energy sources with grid power, with the aim of economically integrating clean energy into small-scale applications. The load patterns of educational institutions differ from those of other applications, necessitating a specialized study to effectively implement the available energy sources. Bio-energy is an attractive option to supply power during low wind or non-sunshine hours. In response, this study comprehensively analyzed the feasibility of implementing a hybrid energy system that incorporates biomass, solar, wind, and grid energy in a higher education institution. The hybrid optimization software tool ’HOMER PRO’ optimized the total system. The average demand and peak load of the institution are 813.86 kWh/day and 128.21 kW, respectively. Among eight configurations identified in this study, a hybrid system with 387 kW solar photovoltaic, 20 kW wind turbine, 4 kW biomass gasifier-operated generator, and grid utility support has 95 % renewable energy penetration. The optimized system has a levelized cost of energy of INR 3.36 (US$ 0.040)/kWh. The specific cost of electricity from solar, wind, and biomass systems is identified as 3.27 (US$ 0.039), 1.64 (US$ 0.02), and 8.01 (US$ 0.096) INR/kWh, respectively. The system can sell 3,66 MWh annually with a significant return on investment. The facility requires 6000 and 10000 m 2 of area for establishing solar and wind farms, respectively. The reduction in grid power utilization reduced the total system’s annual CO 2 emissions to 21 tons. Furthermore, a sensitivity analysis assessed the impact of resource availability and cost variations on the net present cost and cost of electricity. The implementation of the proposed system in other locations requires modifications in the input parameter in accordance with the resource data and load profiles.
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SunView 深度解读

该混合能源系统案例对阳光电源多能互补解决方案具有重要参考价值。95%可再生能源渗透率验证了SG系列光伏逆变器(387kW)与ST系列储能变流器协同优化的可行性。教育机构负荷特性(日均813.86kWh,峰值128.21kW)适合采用PowerTitan储能系统平抑波动,配合iSolarCloud平台实现多源协调控制。生物质补能策略为阳光电源GFM/VSG技术在弱电网并网场景提供创新思路,三电平拓扑可进一步降低0.040美元/kWh的度电成本,推动绿色校园能源转型。