📄 vst_main.m
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about=uimenu(helpmenu,...
'Label','About',...
'CallBack','helpfun(abTitle,aboutStr)');
hlpTitle=['Voltage Stability Toolbox - Help Window'];
hlpStr1=[' '
' Voltage Stability Toolbox '
' '
' Voltage Stability Toolbox (VST) is a powerful software package, developed '
' in Center for Electric Power Engineering, Drexel University, to analyze '
' voltage stability phenomena and provide intuitive information for power '
' system planning, operation,and control. It can also be used to implement '
' load flow calculations. VST is a portable software package that combines '
' computational and analytical capabilities of bifurcation theory, and '
' symbolic implementation and graphical representation capabilities of '
' MATLAB and its Toolboxes. '
' '
' The following analyis can be using VST: '
' '
' Load flow analysis '
' '
' Time domain dynamic analysis '
' '
' Static bifurcation analysis '
' '
' Dynamic bifurcation analyis '
' '
' Eigenvalue analysis '
];
hlpStr2=[
' LOAD FLOW ANALYSIS '
' '
' To run the Load Flow, follow the steps below: '
' '
' Select Model/Load to load the IEEE#_VST.dat '
' '
' Select one of the IEEE#_VST.dat file from the data folder to load the data '
' '
' Select Analysis/Load Flow/Standard NR '
' '
' Select the corresponding IEEE#.dll file from the models folder '
' '
' This will bring the Load Flow Analysis window '
' '
' Reset the states values (flat start) '
' '
' Start the program to obtain load flow results '
' '
' Parameter values are the net injections at each bus '
' '
' State values are the voltage magnitudes and angles at each bus '
];
hlpStr3=[
' '
' TIME DOMAIN DYNAMIC SIMULATION ANALYSIS '
' '
'To run the time domain simulations, follow the steps below '
' '
'Select Model/Load '
' '
'Select one of the IEEE#_VST.dat file in the data folder to load the data '
' '
'Run the dynamic bifurcation anlysis first to load the initial data '
' '
'Select Analysis/Simulation '
' '
'Select the corresponding IEEE#.dll file in the models folder '
' '
'This will bring time domain simulation window '
' '
'Select the duration of the simualtion '
' '
'Choose the initial operating point for the simulation '
' '
'Run the program by pushing the Start button '
' '
'Select the generator variable to plot '
];
hlpStr4=[
' STATIC BIFURCATION ANALYIS '
' '
'To run the static bifurcation simulation, follow the steps below: '
' '
'Select Model/Load '
' '
'Select one of the IEEE#_VST.dat file in the data folder to load the data '
' '
'Select Analyis/Static Bifurcation '
' '
'Select the corresponding IEEE#.dll file in the models folder '
' '
'This will bring static bifurcation simulation interface '
' '
'Reset the sate values (flat start) '
' '
'Set search direction to (-1) for load buses to increase the power demand '
' '
'Set search direction to 1 for generator buses to increase the generation '
' '
'Start the program '
' '
'The output of this simulation is the bifurcation surface(nose curve) '
' '
'Select any state variable from the slider to plot '
];
hlpStr5=[
' '
' DYNAMIC BIFURCATION ANALYIS '
' '
'To run the dynamic bifurcation simulation, follow the steps below: '
' '
'Select Model/Load '
' '
'Select one of the IEEE#_VST.dat file in the data folder to load the data '
' '
'Select Analyis/Dynamic Bifurcation '
' '
'Select the corresponding IEEE#.dll file in the models folder '
' '
'This will bring dynamic bifurcation simulation interface '
' '
'Reset the sate values (flat start) '
' '
'Set search direction to (-1) for load buses to increase the power demand '
' '
'Set search direction to 1 for generator buses to increase the generation '
' '
'Start the program '
' '
'The output of this simulation is the bifurcation surface(nose curve) '
];
hlpStr6=[
' '
' SINGULAR POINT COMPUTATIONS '
' '
'To run the dynamic bifurcation simulation, follow the steps below: '
' '
'Select Model/Load '
' '
'Select one of the IEEE#_VST.dat file in the data folder to load the data '
' '
'Select Analyis/Dynamic Bifurcation '
' '
'Select the corresponding IEEE#.dll file in the models folder '
' '
'This will bring dynamic bifurcation simulation interface '
' '
'Reset the sate values (flat start) '
' '
'Set search direction to (-1) for load buses to increase the power demand '
' '
'Set search direction to 1 for generator buses to increase the generation '
' '
'Start the program '
' '
'The output of this simulation is the bifurcation surface(nose curve) '
];
% -------------------------------------------------
% Display welcome message
mylogo;
uicontrol(Main_Fig,...
'Style','text',...
'Position',[180,48,250,22],...
'BackgroundColor','w',...
'String','A Center for Excellence',...
'FontSize',15)
axis off;
set(gca,'Position',[0.275 0.25 0.5 0.4]);
cplxroot(3,15);
orbit(15);
axis off;
set(Main_Fig,'Pointer','arrow');
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