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Recently, the wind generation systems are attracting attention as a clean and safe renewable energy source. Induction machines have many advantageous characteristics such as high ro‐ bustness, reliability and low cost. Therefore, induction machines are used in high-perform‐ ance applications, which require independent torque and flux control. The induction machines may be used as a motor or a generator. Self-excited induction generators (SEIG) are good candidates for wind-power electricity generation especially in remote areas, be‐ cause they do not need an external power supplies to produce the excitation magnetic fields in [1–3]. The excitation can be provided by a capacitor bank connected to the stator wind‐ ings of the induction generator. Magnetizing inductance is the main factor for voltage buildup of the IG. The minimum and maximum values of capacitance required for self-excitation have been analyzed previously in [4–7].

intech ebooks

Wavelet–Neural–Network Control for Maximization of Energy Capture in Grid Connected Variable Speed Wind Driven Self- Excited Induction Generator System