Achieving Sustainability in the Academic Institutes of Pakistan: A Techno-economic Analysis of 40 kWp Rooftop Photovoltaic Grid-tied System at University of Agriculture, Faisalabad

M. Usman, A. Munir, Furqan Asghar, M. Latif, Rana Asad Ali
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引用次数: 1

Abstract

With the depletion of natural energy resources, the installation of a Photovoltaic (PV) system is the most well-known and implementable technique of sustainable power generation. Integration of PV in the energy system tends to improve the energy mix while catering for the demand and supply gap. The Sustainable Development Goal (SDG-7) of the United Nations focuses on achieving affordable and clean energy via the integration of Renewable Energy (RE) sources. The academic institutes form a major load centers for the consumption of electrical energy. These institutes are rigorously working to achieve the SDG-7 by offsetting the conventional thermal energy generation by RE generation. This study conducted focuses on the design, performance and economic analysis of a 40kWp grid-tied PV system installed on the rooftop of ICT building in the vicinity of the University of Agriculture, Faisalabad. The system is simulated on the PVGIS (Photovoltaic Geographical Information System) tool by European Union. The grid-tied system is connected in a ring-main system which enables other departments to utilize surplus energy production. The installed system is analyzed for the span of six months from March 2020 to August 2020. The simulation and actual results are compared to evaluate the performance ratio of the system. The installed system is validated on-site for performance using string analyzers and thermal imagers. This integration of renewable energy in the University will help reduce the overall annual energy bill of the university. The economic analysis reveals an average energy cost of 3.125 Rs/kWh from the system. During the study span, the system is estimated to save over 19.34 tons of CO2. In addition to this, the net present value (NPV) calculated is positive which depicts the feasibility of the installed system. The internal rate of return (IRR) is found to be 19.25% with the breakeven point reaching just after 3.05 years i.e., in the year 2023. This RE integration complies directly with the sub goal 7.2 of the SDG 7 and sets a way forward for the future implementation of SDGs in academic institutes.
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巴基斯坦学术机构实现可持续发展:费萨拉巴德农业大学40千瓦时屋顶光伏并网系统的技术经济分析
随着自然能源资源的枯竭,安装光伏发电系统是最知名和最可行的可持续发电技术。光伏在能源系统中的整合往往会改善能源结构,同时满足需求和供应缺口。联合国可持续发展目标(SDG-7)的重点是通过整合可再生能源(RE)来实现负担得起的清洁能源。高校是电能消费的主要负荷中心。这些机构正在努力实现可持续发展目标7,通过可再生能源发电抵消传统的热能发电。本研究的重点是安装在费萨拉巴德农业大学附近ICT大楼屋顶的40kWp并网光伏系统的设计、性能和经济分析。该系统在欧盟PVGIS(光伏地理信息系统)工具上进行了仿真。并网系统以环形主系统连接,使其他部门能够利用剩余的能源生产。从2020年3月到2020年8月,对已安装的系统进行为期6个月的分析。将仿真结果与实际结果进行比较,评价系统的性能比。安装后的系统使用管柱分析仪和热成像仪进行现场性能验证。可再生能源在大学的整合将有助于减少大学的整体年度能源账单。经济分析表明,该系统的平均能源成本为3.125卢比/千瓦时。在研究期间,该系统估计节省了超过19.34吨的二氧化碳。除此之外,计算出的净现值(NPV)是正的,它描述了安装系统的可行性。内部收益率(IRR)为19.25%,在3.05年后即2023年达到盈亏平衡点。这种可再生资源整合直接符合可持续发展目标7的子目标7.2,并为未来在学术机构实施可持续发展目标指明了方向。
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