AIMS Energy, 2018, 6(5): 832-845. doi: 10.3934/energy.2018.5.832.

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Stability impact of integrated small scale hybrid (PV/Wind) system with electric distribution network

1 School of Natural Resources Engineering, German Jordanian University, Amman, Jordan
2 Energy Engineering Departments, College of Engineering, Al Hussein Technical University, Amman 25175, Jordan; Sabbatical leave from Tafila Technical University, Department of Electrical power and Mechatronics, Tafila, Jordan

Small-scale renewable energy systems are becoming increasingly popular due to soaring fuel prices and technological advancements that reduce the cost of manufacturing. Solar photovoltaic (PV) and wind turbine (WT) are the most common renewable sources used now. It is well known that these renewable energy sources are intermittent in nature, which impose a challenging to integrate them into the power grid. This paper aims to examine the dynamic behavior of the hybrid PV-WT model under different operating conditions, and the impact of the hybrid PV-WT on the system stability when a fault applied at a point of common coupling (PCC). In this paper, a model of grid connected PV/WT hybrid system is presented. It consists of PV, WT, induction generator, controller and converters. The model is implemented using MATLAB/SIMULINK. Perturb and Observe (P & O) algorithm is used for maximizing the output power from PV array. The fixed speed wind turbine with induction generator is used. This paper shows a good dynamic performance of hybrid PV-WT under different operating conditions. This system has minor impacts on power quality. The transient stability of this system is affected by hybrid PV-WT. The fault clearing time is improved with renewable sources, and become less critical than the system without renewable ones.
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Keywords micro-grid (μG); distributed generation (DG); hybrid PV-WT; stability

Citation: Zeid Al Qaisi, Qais Alsafasfeh, Ahmad Harb. Stability impact of integrated small scale hybrid (PV/Wind) system with electric distribution network. AIMS Energy, 2018, 6(5): 832-845. doi: 10.3934/energy.2018.5.832

References

  • 1. Organization Of The Petroleum Exporting Countries (OPEC) (2009) World oil outlook. Available from: http://www.opec.org/opec_web/en/.
  • 2. Exxonmobil, Outlook for energy-A view to 2030. Available from: http://www.exxonmobil.com/.
  • 3. Energy Information Administration (EIA) (2009) International energy outlook. Available from: www.eia.doe.gov/oiaf/ieo/index.html.B. Simpson.
  • 4. Yorozu T, Hirano M, Oka K, et al. (1987) Electron spectroscopy studies on magneto-optical media and plastic substrate interface. IEEE Transl J Magn Jpn 2: 740–741.    
  • 5. Organization of The Petroleum Exporting Countries (OPEC) (2009) Available from: http://www.opec.org/opec_web/en/.
  • 6. Nagliero A, Mastromauro RA, Monopoli VG, et al. (2010) Analysis of a universal inverter working in grid-connected, stand-alone and micro-grid. IEEE Int Symp Ind Electron 2010: 650–657.
  • 7. Syed MH, Zeineldin HH, El Moursi MS (2013) Grid code violation during fault triggered islanding of hybrid micro-grid, In: Innovative Smart Grid Technologies (ISGT), 2013 IEEE PES, 1–6.
  • 8. Qiang L, Lin Z, Ke G (2012) Review on the dynamic characteristics of micro-grid system, In: Industrial Electronics and Applications (ICIEA), 2012 7th IEEE Conference on, 2069–2074.
  • 9. Microgrids, Islanded Power Grids and Distributed Generation for Community, Commercial, and Institutional Applications, Navigant Research, Boulder (2009) Available from: http://www.navigantresearch.com.
  • 10. Lasseter RH (2002) Microgrids, In: Power Engineering Society Winter Meeting, 1: 305–308.
  • 11. Chen Y, Wei W, Liu F, et al. (2016) Distributionally robust hydro-thermal-wind economic dispatch. Appl Energy 173: 511–519.
  • 12. Li FF, Qiu J (2016) Multi-objective optimization for integrated hydro–photovoltaic power system. Appl Energy 167: 377–384.
  • 13. dos Anjos PS, da Silva ASA, Stošić B, et al. (2015) Long-term correlations and cross-correlations in wind speed and solar radiation temporal series from Fernando de Noronha Island, Brazil. Phys A 424: 90–96.    
  • 14. Monforti F, Huld T, Bódis K, et al. (2014) Assessing complementarity of wind and solar resources for energy production in Italy. A Monte Carlo approach. Renew Energ 63: 576–586.
  • 15. Jurasz J, Wdowikowski M, Kaźmierczak B, et al. (2017) Temporal and spatial complementarity of wind and solar resources in Lower Silesia (Poland). In: E3S Web of Conferences, EDP Sciences, 22: 00074.    
  • 16. Chen T, Alsafasfeh Q, Pourbabak H, et al. (2017) The next-generation US retail electricity market with customers and prosumers-A bibliographical survey. Energies 11: 8.    
  • 17. Ajao A, Luo J, Liang Z, et al. (2017) Intelligent home energy management system for distributed renewable generators, dispatchable residential loads and distributed energy storage devices. Renew Energ Congr 2017: 1–6.
  • 18. Louy M, Tareq Q, Al-Jufout S, et al. (2017) Effect of dust on the 1-MW photovoltaic power plant at Tafila Technical University. Renew Energ Congr 2017: 1–4.
  • 19. Liang Z, Alsafasfeh Q, Jin T, et al. (2017) Risk-constrained optimal energy management for virtual power plants considering correlated demand response. IEEE Trans Smart Grid.
  • 20. Refou O, Alsafasfeh Q, Alsoud M (2015) Evaluation of electric energy losses in southern governorates of Jordan distribution electric system. Int J Energy Eng 5: 25–33.
  • 21. Vasel A, Iakovidis F (2017) The effect of wind direction on the performance of solar PV plants. Energ Conver s Manage 153: 455–461.    
  • 22. Nižetić S, Papadopoulos AM, Giama E (2017) Comprehensive analysis and general economic-environmental evaluation of cooling techniques for photovoltaic panels, Part I: Passive cooling techniques. Energ Conver s Manage 149: 334–354.    
  • 23. Liserre M, Sauter T, Hung JY (2010) Future energy systems: Integrating renewable energy sources into the smart power grid through industrial electronics. IEEE Ind Electron Mag 4: 18–37.    
  • 24. Wang C, Wang L, Shi L, et al. (2007) A survey on wind power technologies in power systems. Power Eng Soc Gen Meet 2007: 1–6.
  • 25. Hadjsaid N, Canard JF, Dumas F (1999) Dispersed generation impact on distribution networks. IEEE Comput Appl Power 12: 22–28.    
  • 26. Woyte A, Van Thong V, Belmans R, et al. (2006) Voltage fluctuations on distribution level introduced by photovoltaic systems. IEEE T Energ Convers 21: 202–209.    
  • 27. Duong MQ, Grimaccia F, Leva S, et al. (2015) Improving transient stability in a grid-connected squirrel-cage induction generator wind turbine system using a fuzzy logic controller. Energies 8: 6328–6349.    
  • 28. Villalva MG, Gazoli JR, Filho ER (2009) Modeling and circuit-based simulation of photovoltaic arrays. Power Electron Conf 14: 1244–1254.
  • 29. Acuña LG, Padilla RV, Mercado AS (2017) Measuring reliability of hybrid photovoltaic-wind energy systems: A new indicator. Renew Energ 106: 68–77.    
  • 30. Mazzeo D, Oliveti G, Baglivo C, et al. (2018) Energy reliability-constrained method for the multi-objective optimization of a photovoltaic-wind hybrid system with battery storage. Energy 156: 688–708.    
  • 31. Ahmed NA, Miyatake M (2009) A stand-alone hybrid generation system combining solar photovoltaic and wind turbine with simple maximum power point tracking control. IEEE Int Power Electron Motion Con 37: 1–7.
  • 32. Zainudin HN, Mekhilef S (2010) Comparison study of maximum power point tracker techniques for pv systems. Int Middle East Power Syst Conf , 750–755.
  • 33. Chellapilla SR, Chowdhury BH (2013) A dynamic model of induction generators for wind power studies. Power Eng Soc Gen Meet 4: 2340–2344.
  • 34. El-Saadawi MM, Hassan AE, Abo-Al-Ez KM, et al. (2011) A proposed framework for dynamic modelling of photovoltaic systems for DG applications. Int J Ambient Energy 32: 2–17.    
  • 35. Reza M (2006) Stability analysis of transmission system with high penetration of distributed generation. Dissertation at Delft University of Technology.
  • 36. Power System Stability (2018) Available from: www.electrical4u.com/power-system-stability.

 

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