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Abstract This case study presents the design, development, and implementation of a residential-scale hybrid solar and wind power generation system installed at the Center of Product Design and Advanced Manufacturing (CPDAM) at Frostburg State University (FSU). The “WISE” system integrates a 2-kW photovoltaic (PV) array and a 1.8 kW wind turbine mounted on a 45-ft monopole tower, jointly supplying a small residential-type building through a grid-tied configuration with net metering. Extensive resource assessment was conducted using three Davis Weather Pro®stations and long-term solar-insolation modeling. The hybrid system incorporates advanced inverter/charger technology, MPPT algorithms, remote monitoring, and automatic generator start capability, enabling reliable, scalable operation for both on-grid and backup modes. Real-time performance data collected throughout the year confirms stable output in varying weather Key words: Hybrid, photovoltaic, PV array, thermostat, auto generator, Solar charger
References [1]. I.M. Dudurych; M. Holly; M. Power “Integration of wind power generation in the Irish grid” published in 2006 IEEE [2]. Kening Fu;Yanbing Jia;Xiaoqing Han “Study on Wind Power Consumption Capacity of Power Grid Considering Risk and Unit Commitment published in 2018 IEEE Power & Energy Society General Meeting (PESGM) [3]. Fei Cao;Jialing Qiu;Zixu Jing “Performance simulation and distribution strategy of solar and wind coupled power [4]. Shi Xuewei;Shi Xuefang;Dong Wenqi “Research on Energy Storage Configuration Method Based on Wind and [5]. Homod M. Ghazal;Khalid A. Khan;Fahad Alismail; Maximizing Capacity Credit in Generation Expansion Planning for Wind Power Generation and Compressed Air Energy Storage System published in 2021 IEEE PES Innovative Smart Grid Technologies Europe (ISGT Europe). [6]. Chunyi Shi, Wei Zhang, The Introduction of Multi-Agent system [M], Publishing House of Electronics Industry, Beijing, 2003. [7]. Hongchun Shu, Lan Tang Jun Dong,, A Survey on Application of Multi-agent System in Power System, Power System Technology, Vol.29, No.6, pp. 27-31. [8]. Chuang Fu, Luqing Ye, Yongqian Liu, Yuanchu Cheng, Intelligent Control-Maintenance-Management System (ICMMS) based on Multi-agent System, Control and Decision, Vol.18,No.3, pp.371-374,may 2003. [9]. Junhua Yang, Jie Wu, Jinming Yang, Pin Yang, Applications of Modern Control Techniques in Wind Energy Conversion System, Acta Energiae Solaris Sinica, Vol.25, No.4, pp.530-538, Aug.2004. [10]. Tiejun Zhou, Yihong Tan, Lining Xing, A Multi-Agent Approach for Solving Traveling Salesman Problem,Wuhan [11]. Jian Wang, Longyun Kang, Binggang Cap, Study of Energy No. 6, pp. 1438-1444, Jun. 2005. [12]. Tariq MASOOD(1), Jamil Abdo(1), Nasser j. ALKuwari(2) Tahir Imran Qureshi(3), Kaimiao Liu(1) “Nuclear ammonia as a renewable energy source: an innovative approach to advancing sustainable fuel solutions for the global energy crisis” published in 23rd International Conference on Renewable Energies and Power Quality (ICREPQ’24) Tenerife (Spain), 25-27th June 2025. https://repqj.com/index.php/repqj/article/view/4513. [13]. Nasser J.Al-Kuwari(1) Tariq MASOOD(2), Jamil Abdo(2),Tahir Imran Qureshi(3), Kaimiao Liu(2) “Advancing Sustainable Hydrogen Production: Cost, Environmental, and Technological Innovations in Biomass, Pyrolysis, and SMR” published in 23rd International Conference on Renewable Energies and Power Quality (ICREPQ’25) Tenerife (Spain), 25-27th June 2025. https://www.enerqj.com/E&Q/eqj3/213-25.pdf. |
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