Document Type
Dissertation
Degree
Doctor of Philosophy (PhD)
Major/Program
Electrical and Computer Engineering
First Advisor's Name
Jean Andrian
First Advisor's Committee Title
Committee chair
Second Advisor's Name
Kang K. Yen
Second Advisor's Committee Title
committee member
Third Advisor's Name
Deng Pan
Third Advisor's Committee Title
committee member
Fourth Advisor's Name
Nezih Pala
Fourth Advisor's Committee Title
committee member
Keywords
power, energy
Date of Defense
3-23-2023
Abstract
Wind power is an economically viable and environmentally friendly renewable energy source. Offshore wind power is becoming increasingly important due to its stable conditions and proximity to load centers. However, the integration of wind turbines and wind power plants must be carefully managed to ensure power system stability. Accurate estimation of wind power production is critical for balancing the power system in real-time and avoiding power outages. This is a challenging task due to the stochastic and intermittent nature of wind power, as well as the complex relationship between wind speed and wind power. Accurate estimation can reduce the costs of installing wind farms and is essential for assessing their economic viability. The forecasting of wind power generation is a widely utilized method for assessing the unpredictability of wind power output. Recent studies have indicated that no one-size-fits-all estimation model can be deemed the most suitable or effective for wind power forecasting, as there are significant disparities among different wind categories, including velocity estimation, wind direction estimation, and the internal effects of turbines within wind farms. As a result, a data-driven modeling framework is required to avoid the reliance on a single model for power generation forecasting. Instead, a physics-based data processing system should be established to provide high-quality data inputs to the model. In wind power plants that operate in series,
variations in power output between turbines can result in violations of the operating limits of motors and power electronic converters. The main cause of these variations is the aerodynamic wake effect of the turbines. Thus, it is crucial to consider the wake model when analyzing the problem at the wind plant level and to develop a model that captures the interactions between different turbines. To address the challenges mentioned above, this study developed a wind power forecasting model for offshore wind power systems. The model takes into account the complexity of wind power generation, and employs category theory-based data analysis to preprocess the raw data. Multiple neural network models are integrated to perform wind power forecasting, while also accounting for the wake effects of wind turbines within the offshore wind farm. This comprehensive approach enables the model to forecast the wind power output of the entire wind farm, and provides a valuable tool for enhancing the efficiency and reliability of offshore wind power systems.
Identifier
FIDC011010
Recommended Citation
Lu, Jide, "An Estimation Model for Offshore Wind Power Generation with Characteristic Category Evaluation Plan" (2023). FIU Electronic Theses and Dissertations. 5313.
https://digitalcommons.fiu.edu/etd/5313
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