Wind power is an important renewable energy because it can be used for electricity generation with very low cost. Self-excited induction generators (SEIG) are found to be most suitable machines for wind energy conversion applications at remote windy areas. The SEIG driven by a prime mover must be connected with external capacitor in order to produce voltage across its terminal. This thesis investigates steady-state dynamic performance of SEIG under static load with various wind speeds and excitation capacitors. The mathematical model of SEIG is implemented in Matlab environment to compute the steady-state operating condition. In order to verify an accuracy of the model, the simulated PV curve of SEIG are then compared with those from the measurement. It is evident that the simulated and measured PV curve are slightly different particularly around the area of the nose curve. A proper excitation capacitor potentially aids an increase in the SEIG terminal voltage and steady-state stability limit, which can be observed via an extension of the PV nose curve. An increase in the wind speed also improves steady-state stability limit of the SEIG.