Abstract
This thesis presents the results of a study on the topic: Time domain modeling and simulation of power electronic circuits. The objectives of the presented work have been to improve and expand the simulation program KREAN. This also included search for, development and implementation of models suited for analysis of power electronic circuits. The main contribution of the work is the improved KREAN program itself and the models created for the program. Further, the work has led to this thesis which is a documentation of the applied methods. The thesis shows how to create a power electronic simulation tool and how to meet the special problems encountered in power electronic circuits. Among the major improvements of KREAN are: Better methods for solution of nonlinear algebraic equations. Major modifications have been implemented in the modified Newton iteration method. The old method suffered from insufficient control of the iteration error. Improved efficiency, accuracy and robustness of the breakpoint detection methods (breakpoints are time instants of discontinuous behavior in models). A new linear circuit now replaces the nonlinear modules at each stage in the iteration. The old one could give serious errors in the results and was not applicable after introduction of voltage
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Citation Formats
Mo, O.
Time domain simulation and modeling of power electronic circuits. Development of a simulation tool.
Norway: N. p.,
1993.
Web.
Mo, O.
Time domain simulation and modeling of power electronic circuits. Development of a simulation tool.
Norway.
Mo, O.
1993.
"Time domain simulation and modeling of power electronic circuits. Development of a simulation tool."
Norway.
@misc{etde_10142744,
title = {Time domain simulation and modeling of power electronic circuits. Development of a simulation tool}
author = {Mo, O}
abstractNote = {This thesis presents the results of a study on the topic: Time domain modeling and simulation of power electronic circuits. The objectives of the presented work have been to improve and expand the simulation program KREAN. This also included search for, development and implementation of models suited for analysis of power electronic circuits. The main contribution of the work is the improved KREAN program itself and the models created for the program. Further, the work has led to this thesis which is a documentation of the applied methods. The thesis shows how to create a power electronic simulation tool and how to meet the special problems encountered in power electronic circuits. Among the major improvements of KREAN are: Better methods for solution of nonlinear algebraic equations. Major modifications have been implemented in the modified Newton iteration method. The old method suffered from insufficient control of the iteration error. Improved efficiency, accuracy and robustness of the breakpoint detection methods (breakpoints are time instants of discontinuous behavior in models). A new linear circuit now replaces the nonlinear modules at each stage in the iteration. The old one could give serious errors in the results and was not applicable after introduction of voltage response terminals. Several new models have been implemented as KREAN modules. Together with the old basic ones, they form a powerful set for simulation of power electronics. The thesis describes the applied methods, the implemented models and also presents results from study of the accuracy and efficiency of the program. The applied methods in the program are stated to be good enough for most simulation purposes. 100 refs., 93 figs., 14 tabs.}
place = {Norway}
year = {1993}
month = {Aug}
}
title = {Time domain simulation and modeling of power electronic circuits. Development of a simulation tool}
author = {Mo, O}
abstractNote = {This thesis presents the results of a study on the topic: Time domain modeling and simulation of power electronic circuits. The objectives of the presented work have been to improve and expand the simulation program KREAN. This also included search for, development and implementation of models suited for analysis of power electronic circuits. The main contribution of the work is the improved KREAN program itself and the models created for the program. Further, the work has led to this thesis which is a documentation of the applied methods. The thesis shows how to create a power electronic simulation tool and how to meet the special problems encountered in power electronic circuits. Among the major improvements of KREAN are: Better methods for solution of nonlinear algebraic equations. Major modifications have been implemented in the modified Newton iteration method. The old method suffered from insufficient control of the iteration error. Improved efficiency, accuracy and robustness of the breakpoint detection methods (breakpoints are time instants of discontinuous behavior in models). A new linear circuit now replaces the nonlinear modules at each stage in the iteration. The old one could give serious errors in the results and was not applicable after introduction of voltage response terminals. Several new models have been implemented as KREAN modules. Together with the old basic ones, they form a powerful set for simulation of power electronics. The thesis describes the applied methods, the implemented models and also presents results from study of the accuracy and efficiency of the program. The applied methods in the program are stated to be good enough for most simulation purposes. 100 refs., 93 figs., 14 tabs.}
place = {Norway}
year = {1993}
month = {Aug}
}