Estimation and Optimal Feedback Control Theory Applied to a Nuclear Boiling Water Reactor
B. Frogner, Lawrence M. Grossman
Abstract
B. Frogner, Lawrence M. Grossman
Abstract
A linear dynamic model, a quadratic performance index, and a Gaussian stochastic noise assumption (LQG-theory) have been used to design a feedback controller for a simulated current design 1100-MW(e) boiling water reactor. The total plant power control is studied in the range of 65 to 100% of rated power, with main emphasis on load-following control. An extended Kalman filter used in parallel with the compensator during normal operation is suggested for on-line parameter estimation. The algorithms are considered suitable for implementation in direct digital control.
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A linear dynamic model, a quadratic performance index, and a Gaussian stochastic noise assumption (LQG-theory) have been used to design a feedback controller for a simulated current design 1100-MW(e) boiling water reactor. The total plant power control is studied in the range of 65 to 100% of rated power, with main emphasis on load-following control. An extended Kalman filter used in parallel with the compensator during normal operation is suggested for on-line parameter estimation. The algorithms are considered suitable for implementation in direct digital control.
Key concepts: Linear-quadratic-Gaussian control, Control theory (sociology), Boiling water reactor, Kalman filter, Controller (irrigation), Boiling, Range (aeronautics), Optimal control