Title :
Emergency generator startup study of a hydro turbine unit for a nuclear generation facility
Author :
Dai, J.J. ; Xiao, Di ; Shokooh, Farrokh ; Schaeffer, Christopher ; Benge, Aldean
Author_Institution :
Oper. Technol. Inc., Irvine, CA, USA
Abstract :
This paper reports the implementation of synchronous generator, induction machine, hydro turbine, and governor system, and excitation and automatic voltage regulator system models for transient stability study. These models are frequency dependent and are suitable for system transient studies involving drastic frequency changes, including generator startup and emergency load startup. A computer simulation program has been developed using these models for a transient stability study. The developed program is further validated and verified using real system testing data that includes the cases of generator startup and full-load shed in a nuclear power generation plant. Validation results show overall an excellent correlation between the computer simulation and the field-testing data. As a result, the program has been accepted by the plant for system modeling and emergency generator startup simulation studies.
Keywords :
asynchronous machines; hydraulic turbines; hydroelectric power stations; nuclear power stations; power engineering computing; power system transient stability; standby generators; synchronous generators; voltage regulators; automatic voltage regulator systems; computer simulation program; emergency generator startup; field-testing data; frequency-dependent synchronous machine; governor system; hydropower generation; hydroturbine unit; induction machine; nuclear generation facility; nuclear power generation plant; real system testing data; synchronous generator; transient stability; Computer simulation; Frequency dependence; Hydraulic turbines; Induction generators; Induction machines; Nuclear power generation; Regulators; Stability; Synchronous generators; Voltage; Frequency-dependent synchronous machine; generator startup; hydro power generation; induction machine and network models; start emergency load; transient stability study;
Journal_Title :
Industry Applications, IEEE Transactions on
DOI :
10.1109/TIA.2004.834035