Rüzgâr Enerjisi Dönüşüm Sistemlerinde bir DC-DC Güç Dönüştürücüsünün Denetimli Öğrenme Destekli Kontrolü
Yıl 2021,
Cilt: 33 - ASYU 2020 Özel Sayısı, 47 - 56, 30.12.2021
Alper Nabi Akpolat
,
Erkan Dursun
,
Ahmet Emin Kuzucuoğlu
Öz
Son on yıllarda, elektrik enerjisi sistemlerinde yenilenebilir enerji kaynaklarının yüksek oranda nüfuzunu yaygınlaştırmak için dağıtılmış enerji kaynakları öne çıkmıştır. Küçük rüzgâr türbinlerinin kolay erişilebilirlik durumu nedeniyle, rüzgâr enerjisi dönüşüm sistemleri özellikle rüzgârlı alanlarda küçük müşteriler için elverişli uygulamalardır. Önümüzdeki on yıl muhtemelen dağıtık enerji kaynakları önemli bir artışa tanık olacaktır. Bu bağlamda, rüzgâr enerji dönüşüm sistemleri yaygın olarak tercih edilmektedir, bu nedenle rüzgâr enerjisinin elektrik enerjisine etkin bir şekilde dönüştürülmesi önemli bir konudur. Rüzgâr türbinleri çeşitli topolojilerle şebekeye bağlı veya otonom modda dâhil edilebilirler. Bu makalede, denetimli öğrenme yöntemine dayalı yapay zekâ destekli PI denetleyicisi yardımıyla bir rüzgâr enerji dönüşüm sistemindeki yükselten DC-DC güç dönüştürücüsünün kontrolünü incelemekteyiz. Önerilen yöntemle ilgili olarak, yapay zekânın bir alt kümesi olarak yapay sinir ağları kullanılmaktadır. Önerilen kontrol yönteminin uygulanabilirliğini test etmek ve doğrulamak için, MATLAB/Simulink ortamında bir DC baraya sabit mıknatıslı senkron generatör ile küçük bir rüzgar enerji dönüşüm sistem uygulanmıştır. Sonuçlar, çalışma kapsamında dinamik yanıtın ve daha az karmaşıklığın yüksek doğruluk ile elde edildiğini göstermektedir.
Destekleyen Kurum
Bu çalışma ASYU2020_Akıllı Sistemlerde Yenilikler ve Uygulamaları Özel sayısı için değerlendirilmek üzere gönderilmiştir.
Teşekkür
Bu çalışma ASYU2020_Akıllı Sistemlerde Yenilikler ve Uygulamaları Özel sayısı için değerlendirilmek üzere gönderilmiştir.
Kaynakça
- [1] Kolar, J. W., Biela, J., Waffler S., Friedli, T. and Badstuebner, U. (2011). Performance trends and limitations of power electronic systems. 2010 6th International Conference on Integrated Power Electronics Systems, Nuremberg, pp. 1-20.
- [2] Melicio, R., Mendes, V. M. F. and Catalao, J. P. S. (2010). Power converter topologies for wind energy conversion systems: Integrated modeling, control strategy and performance simulation. Renewable Energy, 35 (10), pp. 2165-2174.
- [3] Hannan, M. A., et al. (2019). Power electronics contribution to renewable energy conversion addressing emission reduction: Applications, issues, and recommendations. Applied Energy, 251, pp. 113404.
- [4] Soliman, M. A., Hasanien, H. M., Azazi, H. Z., El-Kholy, E. E. and Mahmoud, S. A. (2019). An Adaptive Fuzzy Logic Control Strategy for Performance Enhancement of a Grid-Connected PMSG-Based Wind Turbine. IEEE Transactions on Industrial Informatics, vol. 15 (6), pp. 3163-3173.
- [5] Zhang, Y., Wang, Z., Wang, H. and Blaabjerg, F. (2020). Artificial Intelligence-Aided Thermal Model Considering Cross-Coupling Effects. IEEE Transactions on Power Electronics, 35 (10), pp. 9998-10002.
- [6] Bayhan, S., Demirbaş, S. and Abu-Rub, H. (2016). Fuzzy-PI-based sensorless frequency and voltage controller for doubly fed induction generator connected to a DC microgrid. IET Renewable Power Generation, 10, (8), pp. 1069-1077.
- [7] Mesbahi, A., Aljarhizi, Y., Hassoune, A., Khafallah, M., and Alibrahmi, E. (2020). Boost Converter implementation for Wind Generation System based on a variable speed PMSG," 2020 1st International Conference on Innovative Research in Applied Science, Engineering and Technology (IRASET), Meknes, Morocco, pp. 1-6.
- [8] Deng, X. et al. (2019). Sensorless effective wind speed estimation method based on unknown input disturbance observer and extreme learning machine. Energy, 186 (115790).
- [9] Wei, C., Zhang, Z., Qiao, W., and Qu, L. (2016). An Adaptive Network-Based Reinforcement Learning Method for MPPT Control of PMSG Wind Energy Conversion Systems. IEEE Transactions on Power Electronics, 31 (11), pp. 7837-7848.
- [10] Chatri, C. and Ouassaid, M. (2018). Sensorless Control of the PMSG in WECS Using Artificial Neural Network and Sliding Mode Observer. 2018 International Symposium on Advanced Electrical and Communication Technologies (ISAECT), Rabat, Morocco, pp. 1-6.
- [11] Jday, M. and Haggège, J. (2017). Modeling and neural networks based control of power converters associated with a wind turbine. 2017 International Conference on Green Energy Conversion Systems (GECS), Hammamet, Tunisia, pp. 1-7.
- [12] Adineh, B., Habibi, M. R., Akpolat, A. N. and Blaabjerg, F. (2021). Sensorless Voltage Estimation for Total Harmonic Distortion Calculation using Artificial Neural Networks in Microgrids. IEEE Transactions on Circuits and Systems II: Express Briefs, doi: 10.1109/TCSII.2021.3059410.
- [13] Akpolat, A. N., Dursun, E. and Kuzucuoğlu, A. E. (2020). AI-Aided Control of a Power Converter in Wind Energy Conversion System. 2020 Innovations in Intelligent Systems and Applications Conference (ASYU), Istanbul, Turkey, pp. 1-6, doi: 10.1109/ASYU50717.2020.9259877.
- [14] Samara, S. and Natsheh, E. (2019). Intelligent Real-Time Photovoltaic Panel Monitoring System Using Artificial Neural Networks. IEEE Access, 7, pp. 50287-50299.
- [15] Akpolat, A. N., Habibi, M. R., Dursun, E., Kuzucuoğlu, A. E., Yang, Y., Dragicevic, T. and Blaabjerg, F. (2020). Sensorless Control of DC Microgrid Based on Artificial Intelligence. IEEE Transactions on Energy Conversion, doi: 10.1109/TEC.2020.3044270.
- [16] Egea-Àlvarez, A., Aragüés-Peñalba, M., Gomis-Bellmunt, O., Rull-Duran, J. and Sudrià-Andreu, A. (2016). Sensorless control of a power converter for a cluster of small wind turbines. IET Renewable Power Generation, 10 (5), pp. 721-728.
- [17] Teiar, H., Chaoui H. and Sicard, P. (2015). Almost parameter-free sensorless control of PMSM. IECON 2015 - 41st Annual Conference of the IEEE Industrial Electronics Society, Yokohama, pp. 004667-004671.
- [18] Syskakis. T. and Ordonez, M. (2019). MPPT for Small Wind Turbines: Zero-Oscillation Sensorless Strategy. 2019 IEEE 10th International Symposium on Power Electronics for Distributed Generation Systems (PEDG), Xi'an, China, pp. 1060-1065.
- [19] Onar, O. C. and Khaligh, A. (2015). Alternative Energy in Power Electronics. Chapter 2 - Energy Sources, 1st ed., UK: Butterworth-Heinemann, Elsevier, 2015, pp. 81-154.
- [20] Heier, S. (2014). Wind Energy Conversion System. Grid Integration of Wind Energy: Onshore and Offshore Conversion Systems, 3rd ed., Germany: John Wiley & Sons, pp. 31-117.
- [21] Piccinini, G. (2004). The first computational theory of mind and brain: A close look at McCulloch and Pitts’s ‘logical calculus of ideas immanent in nervous activity. Synthese, 141, pp. 75–215.
- [22] Rathnayaka, R. M. K. T. and Seneviratna, D. M. K. N. (2019). A Novel Hybrid Back Propagation Neural Network Approach for Time Series Forecasting Under the Volatility. Communications in Computer and Information Science, Singapore.
Supervised Learning-Aided Control of a DC-DC Power Converter in Wind Energy Conversion Systems
Yıl 2021,
Cilt: 33 - ASYU 2020 Özel Sayısı, 47 - 56, 30.12.2021
Alper Nabi Akpolat
,
Erkan Dursun
,
Ahmet Emin Kuzucuoğlu
Öz
Over the last decades, to adopt high penetration of renewable energy sources (RESs) in electrical energy systems, distributed energy resources (DERs) have become prominent. Due to easy attainability status of small wind turbines (WTs), wind energy conversion systems (WECSs) are feasible applications for small customers, especially in windy areas. The next decade is likely to witness a considerable rise in DERs. In this context, WECSs are preferred broadly, thus harvesting wind energy into electrical energy effectively is a substantial issue. WTs can be got involved in the grid-connected or autonomous mode with a variety of topologies. In this paper, we examine to control of DC-DC boost converter of a WECS with the help of artificial intelligence (AI)-aided PI controller based on supervised learning method. Regarding the proposed method, artificial neural networks (ANNs) as a subset of AI are utilized. To test and ensure the applicability of the proposed control method, a small WECS with a permanent magnet synchronous generator (PMSG) connected a DC bus was implemented in MATLAB/Simulink environment. The proposed ANN scheme has reached a high accuracy rate with an overall mean squared error (MSE) equal to 7.4e-08. The results present that dynamic response and less complexity with a high accuracy rate have been obtained under study. The main target of this study is to reduce the number of sensors in the control layer. Thus, a cost-effective and more reliable structure is obtained with fewer sensor requirements.
Kaynakça
- [1] Kolar, J. W., Biela, J., Waffler S., Friedli, T. and Badstuebner, U. (2011). Performance trends and limitations of power electronic systems. 2010 6th International Conference on Integrated Power Electronics Systems, Nuremberg, pp. 1-20.
- [2] Melicio, R., Mendes, V. M. F. and Catalao, J. P. S. (2010). Power converter topologies for wind energy conversion systems: Integrated modeling, control strategy and performance simulation. Renewable Energy, 35 (10), pp. 2165-2174.
- [3] Hannan, M. A., et al. (2019). Power electronics contribution to renewable energy conversion addressing emission reduction: Applications, issues, and recommendations. Applied Energy, 251, pp. 113404.
- [4] Soliman, M. A., Hasanien, H. M., Azazi, H. Z., El-Kholy, E. E. and Mahmoud, S. A. (2019). An Adaptive Fuzzy Logic Control Strategy for Performance Enhancement of a Grid-Connected PMSG-Based Wind Turbine. IEEE Transactions on Industrial Informatics, vol. 15 (6), pp. 3163-3173.
- [5] Zhang, Y., Wang, Z., Wang, H. and Blaabjerg, F. (2020). Artificial Intelligence-Aided Thermal Model Considering Cross-Coupling Effects. IEEE Transactions on Power Electronics, 35 (10), pp. 9998-10002.
- [6] Bayhan, S., Demirbaş, S. and Abu-Rub, H. (2016). Fuzzy-PI-based sensorless frequency and voltage controller for doubly fed induction generator connected to a DC microgrid. IET Renewable Power Generation, 10, (8), pp. 1069-1077.
- [7] Mesbahi, A., Aljarhizi, Y., Hassoune, A., Khafallah, M., and Alibrahmi, E. (2020). Boost Converter implementation for Wind Generation System based on a variable speed PMSG," 2020 1st International Conference on Innovative Research in Applied Science, Engineering and Technology (IRASET), Meknes, Morocco, pp. 1-6.
- [8] Deng, X. et al. (2019). Sensorless effective wind speed estimation method based on unknown input disturbance observer and extreme learning machine. Energy, 186 (115790).
- [9] Wei, C., Zhang, Z., Qiao, W., and Qu, L. (2016). An Adaptive Network-Based Reinforcement Learning Method for MPPT Control of PMSG Wind Energy Conversion Systems. IEEE Transactions on Power Electronics, 31 (11), pp. 7837-7848.
- [10] Chatri, C. and Ouassaid, M. (2018). Sensorless Control of the PMSG in WECS Using Artificial Neural Network and Sliding Mode Observer. 2018 International Symposium on Advanced Electrical and Communication Technologies (ISAECT), Rabat, Morocco, pp. 1-6.
- [11] Jday, M. and Haggège, J. (2017). Modeling and neural networks based control of power converters associated with a wind turbine. 2017 International Conference on Green Energy Conversion Systems (GECS), Hammamet, Tunisia, pp. 1-7.
- [12] Adineh, B., Habibi, M. R., Akpolat, A. N. and Blaabjerg, F. (2021). Sensorless Voltage Estimation for Total Harmonic Distortion Calculation using Artificial Neural Networks in Microgrids. IEEE Transactions on Circuits and Systems II: Express Briefs, doi: 10.1109/TCSII.2021.3059410.
- [13] Akpolat, A. N., Dursun, E. and Kuzucuoğlu, A. E. (2020). AI-Aided Control of a Power Converter in Wind Energy Conversion System. 2020 Innovations in Intelligent Systems and Applications Conference (ASYU), Istanbul, Turkey, pp. 1-6, doi: 10.1109/ASYU50717.2020.9259877.
- [14] Samara, S. and Natsheh, E. (2019). Intelligent Real-Time Photovoltaic Panel Monitoring System Using Artificial Neural Networks. IEEE Access, 7, pp. 50287-50299.
- [15] Akpolat, A. N., Habibi, M. R., Dursun, E., Kuzucuoğlu, A. E., Yang, Y., Dragicevic, T. and Blaabjerg, F. (2020). Sensorless Control of DC Microgrid Based on Artificial Intelligence. IEEE Transactions on Energy Conversion, doi: 10.1109/TEC.2020.3044270.
- [16] Egea-Àlvarez, A., Aragüés-Peñalba, M., Gomis-Bellmunt, O., Rull-Duran, J. and Sudrià-Andreu, A. (2016). Sensorless control of a power converter for a cluster of small wind turbines. IET Renewable Power Generation, 10 (5), pp. 721-728.
- [17] Teiar, H., Chaoui H. and Sicard, P. (2015). Almost parameter-free sensorless control of PMSM. IECON 2015 - 41st Annual Conference of the IEEE Industrial Electronics Society, Yokohama, pp. 004667-004671.
- [18] Syskakis. T. and Ordonez, M. (2019). MPPT for Small Wind Turbines: Zero-Oscillation Sensorless Strategy. 2019 IEEE 10th International Symposium on Power Electronics for Distributed Generation Systems (PEDG), Xi'an, China, pp. 1060-1065.
- [19] Onar, O. C. and Khaligh, A. (2015). Alternative Energy in Power Electronics. Chapter 2 - Energy Sources, 1st ed., UK: Butterworth-Heinemann, Elsevier, 2015, pp. 81-154.
- [20] Heier, S. (2014). Wind Energy Conversion System. Grid Integration of Wind Energy: Onshore and Offshore Conversion Systems, 3rd ed., Germany: John Wiley & Sons, pp. 31-117.
- [21] Piccinini, G. (2004). The first computational theory of mind and brain: A close look at McCulloch and Pitts’s ‘logical calculus of ideas immanent in nervous activity. Synthese, 141, pp. 75–215.
- [22] Rathnayaka, R. M. K. T. and Seneviratna, D. M. K. N. (2019). A Novel Hybrid Back Propagation Neural Network Approach for Time Series Forecasting Under the Volatility. Communications in Computer and Information Science, Singapore.