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createSystem.m
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createSystem.m
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% This script handles the generation of a Simulink model for large power
% systems.
%
% Author: First Name: Bernhard
% Last Name: Krop
% E-Mail: b.krop@gmx.de
%
% Last time updated: 06. March 2016
function createSystem()
% Use global variables.
global g_sTitle g_cObjects;
% Make variables global.
global g_iHeight g_iIterator g_iOffset g_iWidth g_dSystem g_cBlocks g_cTemporaryBlocks;
% Check whether a Simulink model with the same name is open.
if bdIsLoaded(g_sTitle)
warning('Another model with the name ''%s'' is open!', g_sTitle);
l_iCounter = 1;
while(bdIsLoaded([g_sTitle, num2str(l_iCounter)]))
l_iCounter = l_iCounter + 1;
end
g_sTitle = [g_sTitle, num2str(l_iCounter)];
end
% The Simulink model.
g_dSystem = new_system(g_sTitle);
% The width of each block.
g_iWidth = 30;
% The height of each block.
g_iHeight = 30;
% The offset between blocks.
g_iOffset = 50;
% Check if CIM objects exists.
if(size(g_cObjects) <= 1)
clearvars -global -except g_dSystem;
return;
end
% A cell which contains all information of already created blocks. It
% contains:
%
% The RDF-ID of the object;
% The name of the block;
% The path of the parent block;
% The number of blocks in the (sub)system.
g_cBlocks = {'', g_sTitle, '', 0};
% Blocks, which are created temporary and must be deleted at the end of
% this script, are stored in 'g_cTemporaryBlocks'. It contains:
%
% The RDF-ID of the object;
% The name of the block;
% The path of the parent block.
g_cTemporaryBlocks = cell(0, 3);
% Create enums.
Simulink.defineIntEnumType('Boolean', {'true', 'false'}, [0, 1]);
Simulink.defineIntEnumType('CoolantType', {'air', 'hydrogenGas', 'water'}, [0, 1, 2]);
Simulink.defineIntEnumType('FuelType', {'coal', 'gas', 'lignite', 'oil'}, [0, 1, 2, 3]);
Simulink.defineIntEnumType('GeneratorControlSource', {'unavailable', 'offAGC', 'onAGC', 'plantControl'}, [0, 1, 2, 3]);
Simulink.defineIntEnumType('ParametersFormType', {'timeConstantReactance', 'equivalentCircuit'}, [0, 1]);
Simulink.defineIntEnumType('PhaseCode', {'A', 'AB', 'ABC', 'ABCN', 'ABN', 'AC', 'ACN', 'AN', 'B', 'BC', 'BCN', 'BN', 'C', 'CN', 'N', 'splitSecondary12N', 'splitSecondary1N', 'splitSecondary2N'}, [0, 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16, 17]);
Simulink.defineIntEnumType('PhaseShuntConnectionKind', {'D', 'Y', 'Yn', 'I'}, [0, 1, 2, 3]);
Simulink.defineIntEnumType('RegulatingControlModeKind', {'activePower', 'admittance', 'currentFlow', 'fixed', 'powerFactor', 'reactivePower', 'temperature', 'timeScheduled', 'voltage'}, [0, 1, 2, 3, 4, 5, 6, 7, 8]);
Simulink.defineIntEnumType('SynchronousMachineOperatingMode', {'condenser', 'generator'}, [0, 1]);
Simulink.defineIntEnumType('SynchronousMachineType', {'condenser', 'generator', 'generator_or_condenser'}, [0, 1, 2]);
Simulink.defineIntEnumType('UnitMultiplier', {'p', 'n', 'micro', 'm', 'c', 'd', 'k', 'M', 'G', 'T', 'none'}, [0, 1, 2, 3, 4, 5, 6, 7, 8, 9, 10]);
Simulink.defineIntEnumType('UnitSymbol', {'VA', 'W', 'VAr', 'VAh', 'Wh', 'VArh', 'V', 'ohm', 'A', 'F', 'H', 'degC', 's', 'min_', 'h', 'deg', 'rad', 'J', 'N', 'S', 'none', 'Hz', 'g', 'Pa', 'm', 'm2', 'm3'}, [0, 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16, 17, 18, 19, 20, 21, 22, 23, 24, 25, 26]);
Simulink.defineIntEnumType('WindingConnection', {'D', 'Y', 'Z', 'Yn', 'Zn', 'A', 'I'}, [0, 1, 2, 3, 4, 5, 6]);
Simulink.defineIntEnumType('WindingType', {'primary', 'secondary', 'tertiary'}, [0, 1, 2]);
% Create all objects.
for g_iIterator = 1 : size(g_cObjects)
switch(g_cObjects{g_iIterator})
case ('ACLineSegment')
createACLineSegment();
case ('Analog')
createAnalog();
case ('BaseVoltage')
createBaseVoltage();
case ('Breaker')
createBreaker();
case ('BusbarSection')
createBusbarSection();
case ('ConnectivityNode')
createConnectivityNode();
case ('Disconnector')
createDisconnector();
case ('EnergySource')
createEnergySource();
case ('GeographicalRegion')
createGeographicalRegion();
case ('Line')
createLine();
case ('NonConformLoad')
createNonConformLoad();
case ('PowerTransformer')
createPowerTransformer();
case ('RegulatingControl')
createRegulatingControl();
case ('SubGeographicalRegion')
createSubGeographicalRegion();
case ('Substation')
createSubstation();
case ('SynchronousMachine')
createSynchronousMachine();
case ('Terminal')
createTerminal();
case ('ThermalGeneratingUnit')
createThermalGeneratingUnit();
case ('TransformerWinding')
createTransformerWinding();
case ('VoltageLevel')
createVoltageLevel();
otherwise
warning('Could not define class ''%s''!', g_cObjects{g_iIterator, 1});
continue;
end % End of switch.
end % End of for.
% Delete all temporary blocks.
for l_iI = 1 : size(g_cTemporaryBlocks)
delete_block(strcat(g_cTemporaryBlocks{l_iI, 3}, '/', g_cTemporaryBlocks{l_iI, 2}));
end
% Clean up everything, that is not needed anymore.
clearvars -global -except g_dSystem;
end % End of main function.
% This function returns the index of the position, based on the number of
% blocks.
% @param number The number of blocks in the current
% (sub)system.
% @return index A 1x2 cell with the index of the position. The
% left cell contains the x-position, the right
% one the y-position.
function index = getPositionIndex(number)
% Check input parameter.
if(~exist('number', 'var') || ~isnumeric(number))
index = {0, 0};
return;
end
% The current maximum length.
l_iLength = 1;
% Determine current dimension.
while(true)
if(number < (l_iLength * l_iLength))
break;
end
l_iLength = l_iLength + 1;
end
% Remove all positions of smaller dimensions.
number = number - ((l_iLength - 1) * (l_iLength - 1));
% Determine x- and y-position.
if(number < (l_iLength - 1))
l_iX = l_iLength - 1;
l_iY = number;
else
l_iX = number - (l_iLength - 1);
l_iY = l_iLength - 1;
end
% Clean up everthing, that is not needed anymore.
index = {l_iX, l_iY};
clearvars -except index;
end % End of function 'getPositionIndex'.
% This function parses all attributes of the current CIM object.
function parseAttributes()
% Use global variables.
global g_iIterator g_cObjects;
% Make variables global.
global g_cAttributes;
l_sAttributes = g_cObjects{g_iIterator, 3};
% Pre-allocate g_cAttributes.
l_cSize = size(strfind(l_sAttributes, '</')) + size(strfind(l_sAttributes, '/>'));
g_cAttributes = cell(l_cSize(2), 1);
% Parse attributes.
l_cFind = strfind(l_sAttributes, '>');
l_iI = 1;
while(size(l_cFind) > 0)
if(strcmp(l_sAttributes(l_cFind(1) - 1), '/'))
g_cAttributes{l_iI} = l_sAttributes(1 : l_cFind(1));
l_sAttributes = l_sAttributes(l_cFind(1) + 1 : end);
else
g_cAttributes{l_iI} = l_sAttributes(1 : l_cFind(2));
l_sAttributes = l_sAttributes(l_cFind(2) + 1 : end);
end
l_cFind = strfind(l_sAttributes, '>');
l_iI = l_iI + 1;
end
% Clean up everything, that is not needed anymore.
clearvars;
end % End of function 'parseAttributes'.
% This function copies temporary created blocks to its final destinations
% and deletes the original blocks.
% @param blocks A string containing the RDF-IDs of the blocks,
% which are to copy. The IDs are separated by a
% white space.
% @param path The path of the new parent block of the blocks,
% which are to copy.
% @param number The number of blocks, which are in the new
% parent. This is an optional parameter. If it is
% missing, it is assumed to be zero.
% @param delete True, if the temporary block has to be deleted.
% False, otherwise. This is an optional
% parameter. If it is missing, it is assumed to
% be true.
% @return newNumber The new number of blocks, which are now in the
% new parent.
function newNumber = copyBlocks(blocks, path, number, delete)
% Use global variables.
global g_iHeight g_iOffset g_iWidth g_cBlocks g_cTemporaryBlocks;
% Check number.
if(~exist('number', 'var') || ~isnumeric(number))
number = 0;
end
% Check delete.
if(~exist('delete', 'var') || ~islogical(delete))
delete = true;
end
% Only continue, if blocks and path exists and are strings.
if(exist('blocks', 'var') && ischar(blocks) && exist('path', 'var') && ischar(path))
l_cBlocks = strsplit(blocks);
l_cSize = size(l_cBlocks);
% Repeat for every block.
for l_iI = 1 : l_cSize(2)
% Search for the right block.
for l_iJ = 1 : size(g_cTemporaryBlocks)
if(strcmp(l_cBlocks{1, l_iI}, g_cTemporaryBlocks{l_iJ}))
% Copy the block.
l_cPos = getPositionIndex(number);
l_iLeft = l_cPos{1, 1} * (g_iOffset + g_iWidth) + g_iOffset;
l_iTop = l_cPos{1, 2} * (g_iOffset + g_iHeight) + g_iOffset;
l_aPosition = [l_iLeft, l_iTop, l_iLeft + g_iWidth, l_iTop + g_iHeight];
add_block(strcat(g_cTemporaryBlocks{l_iJ, 3}, '/', g_cTemporaryBlocks{l_iJ, 2}), strcat(path, '/', g_cTemporaryBlocks{l_iJ, 2}), 'Position', l_aPosition);
number = number + 1;
if(delete)
% Delete the temporary block.
delete_block(strcat(g_cTemporaryBlocks{l_iJ, 3}, '/', g_cTemporaryBlocks{l_iJ, 2}));
g_cTemporaryBlocks(l_iJ, :) = [];
% Correct the new path of the block in 'g_cBlocks'.
for l_iK = 1 : size(g_cBlocks)
if(strcmp(l_cBlocks{1, l_iI}, g_cBlocks{l_iK}))
g_cBlocks{l_iK, 3} = path;
break;
end
end
end
break;
end % End of if.
end % End of for.
end % End of for.
end % End of if.
% Clean up everything, that is not needed anymore.
newNumber = number;
clearvars -except newNumber;
end % End of function 'copyBlocks'.
% The following functions are creating CIM objects in Simulink. For
% example, createBaseVoltage creates either a DC or an AC Voltage Source.
function createACLineSegment()
% Use global variables.
global g_iHeight g_iIterator g_iOffset g_iWidth g_cAttributes g_cBlocks g_cObjects g_cTemporaryBlocks g_sTitle;
% Attributes of...
% ...IdentifiedObject:
global g_sDescription g_sName;
% ...Equipment:
global g_sEquipmentContainer;
% ...ConductingEquipment:
global g_sPhases;
% ...Conductor:
global g_sLength;
% ...ACLineSegment:
l_sCapacitance = '[0 0]';
l_sFrequency = '50.0';
l_sR = '0.0';
l_sR0 = '0.0';
l_sX = '0.0';
l_sX0 = '0.0';
parseAttributes();
createConductor();
% Identify attributes.
for l_iI = 1 : size(g_cAttributes)
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:ACLineSegment.b0ch');
if(size(l_cFind) > 0)
% @Note:
% Currently not used.
%l_sB0ch = g_cAttributes{l_iI}(l_cFind(1) + 23 : l_cFind(2) - 3);
continue;
end
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:ACLineSegment.bch');
if(size(l_cFind) > 0)
% @Note:
% Currently not used.
%l_sBch = g_cAttributes{l_iI}(l_cFind(1) + 22 : l_cFind(2) - 3);
continue;
end
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:ACLineSegment.Clamp');
if(size(l_cFind) > 0)
% @Note:
% Currently not used.
%l_sClamp = g_cAttributes{l_iI}(l_cFind(1) + 39 : end - 3);
continue;
end
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:ACLineSegment.ConductorAssets');
if(size(l_cFind) > 0)
% @Note:
% Currently not used.
%l_sConductorAssets = g_cAttributes{l_iI}(l_cFind(1) + 49 : end - 3);
continue;
end
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:ACLineSegment.ConductorInfo');
if(size(l_cFind) > 0)
% @Note:
% Currently not used.
%l_sConductorInfo = g_cAttributes{l_iI}(l_cFind(1) + 47 : end - 3);
continue;
end
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:ACLineSegment.Cut');
if(size(l_cFind) > 0)
% @Note:
% Currently not used.
%l_sCut = g_cAttributes{l_iI}(l_cFind(1) + 37 : end - 3);
continue;
end
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:ACLineSegment.g0ch');
if(size(l_cFind) > 0)
% @Note:
% Currently not used.
%l_sG0ch = g_cAttributes{l_iI}(l_cFind(1) + 23 : l_cFind(2) - 3);
continue;
end
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:ACLineSegment.gch');
if(size(l_cFind) > 0)
% @Note:
% Currently not used.
%l_sGch = g_cAttributes{l_iI}(l_cFind(1) + 22 : l_cFind(2) - 3);
continue;
end
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:ACLineSegment.PhaseImpedance');
if(size(l_cFind) > 0)
% @Note:
% Currently not used.
%l_sPhaseImpedance = g_cAttributes{l_iI}(l_cFind(1) + 48 : end - 3);
continue;
end
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:ACLineSegment.r0');
if(size(l_cFind) > 0)
l_sR0 = g_cAttributes{l_iI}(l_cFind(1) + 21 : l_cFind(2) - 3);
continue;
end
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:ACLineSegment.r');
if(size(l_cFind) > 0)
l_sR = g_cAttributes{l_iI}(l_cFind(1) + 20 : l_cFind(2) - 3);
continue;
end
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:ACLineSegment.SequenceImpedance');
if(size(l_cFind) > 0)
% @Note:
% Currently not used.
%l_sSequenceImpedance = g_cAttributes{l_iI}(l_cFind(1) + 51 : end - 3);
continue;
end
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:ACLineSegment.x0');
if(size(l_cFind) > 0)
l_sX0 = g_cAttributes{l_iI}(l_cFind(1) + 21 : l_cFind(2) - 3);
continue;
end
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:ACLineSegment.x');
if(size(l_cFind) > 0)
l_sX = g_cAttributes{l_iI}(l_cFind(1) + 20 : l_cFind(2) - 3);
continue;
end
end % End of for.
% @Equipment.EquipmentContainer:
% Every Equipment must be contained by a EquipmentContainer. If
% Equipment.EquipmentContainer doesn't exist, this Equipment will be
% created temporarily at the top level of the system.
if(~strcmp(g_sEquipmentContainer, ''))
for l_iI = 1 : size(g_cBlocks)
if(strcmp(g_sEquipmentContainer, g_cBlocks{l_iI}))
l_sParent = strcat(g_cBlocks{l_iI, 3}, '/', g_cBlocks{l_iI, 2});
break;
end
end
end
if(~exist('l_sParent', 'var'))
l_sParent = g_sTitle;
l_iI = 1;
end
% @ConductingEquipment.phases:
% The carried phases of this ACLineSegment.
switch(g_sPhases)
case('A')
g_sPhases = '1';
case('AB')
g_sPhases = '2';
case('AC')
g_sPhases = '2';
case('AN')
g_sPhases = '1';
case('ABC')
g_sPhases = '3';
case('ABN')
g_sPhases = '2';
case('ACN')
g_sPhases = '2';
case('ABCN')
g_sPhases = '3';
case('B')
g_sPhases = '1';
case('BC')
g_sPhases = '2';
case('BN')
g_sPhases = '1';
case('BCN')
g_sPhases = '2';
case('C')
g_sPhases = '1';
case('CN')
g_sPhases = '1';
case('splitSecondary1N')
g_sPhases = '1';
case('splitSecondary2N')
g_sPhases = '1';
case('splitSecondary12N')
g_sPhases = '2';
otherwise
g_sPhases = '1';
end
% @Conductor.length:
% The segment length (in m) for calculating line section capabilities.
% In Simulink, the length is needed in km. Therefore, it will be
% divided by 1000.
g_sLength = num2str(str2double(g_sLength) / 1000.0);
% @ACLineSegment.r, @ACLineSegment.r0:
% The positive and zero resistance of the entire line segment. In
% Simulink, resistance / km is needed. Therefore the resistances will
% devided by the length.
if(str2double(g_sLength) ~= 0)
l_sR = num2str(str2double(l_sR) / str2double(g_sLength));
l_sR0 = num2str(str2double(l_sR0) / str2double(g_sLength));
end
l_sResistance = strcat('[', l_sR, {' '}, l_sR0, ']');
% @ACLineSegment.x, @ACLineSegment.x0:
% The positive and zero reactance of the entire line segment. In
% Simulink, inductance per km is needed. The inductance can be
% calculated out of the reactances by the formula
% "L = X / (2 * PI * f)". f = 50 is assumed. To get the inductance per
% km, it has to be devided by the length.
l_sL = num2str(str2double(l_sX) / (2 * pi * str2double(l_sFrequency)));
l_sL0 = num2str(str2double(l_sX0) / (2 * pi * str2double(l_sFrequency)));
if(str2double(g_sLength) ~= 0)
l_sL = num2str(str2double(l_sL) / str2double(g_sLength));
l_sL0 = num2str(str2double(l_sL0) / str2double(g_sLength));
end
l_sInductance = strcat('[', l_sL, {' '}, l_sL0, ']');
% Create this ACLineSegment.
l_cPos = getPositionIndex(g_cBlocks{l_iI, 4});
l_iLeft = l_cPos{1, 1} * (g_iOffset + g_iWidth) + g_iOffset;
l_iTop = l_cPos{1, 2} * (g_iOffset + g_iHeight) + g_iOffset;
l_aPosition = [l_iLeft, l_iTop, l_iLeft + g_iWidth, l_iTop + g_iHeight];
add_block('powerlib/Elements/Distributed Parameters Line', strcat(l_sParent, '/', g_sName), 'Position', l_aPosition);
set_param(strcat(l_sParent, '/', g_sName), 'Description', g_sDescription, 'Phases', g_sPhases, 'Length', g_sLength, 'Resistance', l_sResistance{1}, 'Inductance', l_sInductance{1}, 'Frequency', l_sFrequency, 'Capacitance', l_sCapacitance);
% Update g_cBlocks and g_cTemporaryBlocks.
g_cBlocks{l_iI, 4} = g_cBlocks{l_iI, 4} + 1;
g_cBlocks = vertcat(g_cBlocks, {g_cObjects{g_iIterator}, g_sName, l_sParent, 0});
if(strcmp(l_sParent, g_sTitle))
g_cTemporaryBlocks = vertcat(g_cTemporaryBlocks, {g_cObjects{g_iIterator}, g_sName, l_sParent});
end
% Clean up everything, that is not needed anymore.
clearvars -global -except g_iHeight g_iIterator g_iOffset g_iWidth g_dSystem g_sTitle g_cBlocks g_cObjects g_cTemporaryBlocks;
end % End of function 'createACLineSegment'.
function createAnalog()
% Use global variables.
global g_iIterator g_iHeight g_iWidth g_iOffset g_cAttributes g_cObjects g_cBlocks;
parseAttributes();
% Identify attributes.
for l_iI = 1:size(g_cAttributes)
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:IdentifiedObject.aliasName');
if(size(l_cFind) > 0)
if(exist('l_sName', 'var'))
l_sName = strcat(l_sName, ' (', g_cAttributes{l_iI}(l_cFind(1) + 31:l_cFind(2) - 3), ')');
else
l_sName = strcat('(', g_cAttributes{l_iI}(l_cFind(1) + 31:l_cFind(2) - 3), ')');
end
continue;
end
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:IdentifiedObject.name');
if(size(l_cFind) > 0)
if(exist('l_sName', 'var'))
l_sName = strcat(g_cAttributes{l_iI}(l_cFind(1) + 26:l_cFind(2) - 3), ' ', l_sName);
else
l_sName = g_cAttributes{l_iI}(l_cFind(1) + 26:l_cFind(2) - 3);
end
continue;
end
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:Measurement.MemberOf_PowerSystemResource');
if(size(l_cFind) > 0)
l_sMemberOf_PowerSystemResource = g_cAttributes{l_iI}(l_cFind(1) + 60:end - 3);
continue;
end
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:Measurement.measurementType');
if(size(l_cFind) > 0)
l_sMeasurementType = g_cAttributes{l_iI}(l_cFind(1) + 32:l_cFind(2) - 3);
continue;
end
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:Measurement.phases');
if(size(l_cFind) > 0)
l_sPhases = g_cAttributes{l_iI}(l_cFind(1) + 23:l_cFind(2) - 3);
continue;
end
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:Measurement.Terminal');
if(size(l_cFind) > 0)
l_sTerminal = g_cAttributes{l_iI}(l_cFind(1) + 40:end - 3);
continue;
end
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:Measurement.unitMultiplier');
if(size(l_cFind) > 0)
l_sUnitMultiplier = g_cAttributes{l_iI}(l_cFind(1) + 46:end - 3);
continue;
end
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:Measurement.unitSymbol');
if(size(l_cFind) > 0)
l_sUnitSymbol = g_cAttributes{l_iI}(l_cFind(1) + 42:end - 3);
continue;
end
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:Analog.LimitSets');
if(size(l_cFind) > 0)
l_cFind = strfind(g_cAttributes{l_iI}, '"');
l_cSize = size(l_cFind);
l_cLimitSets = cell(l_cSize(1, 2) / 2, 1);
l_iJ = 1;
while (l_iJ < l_cSize(1, 2))
l_cLimitSets{(l_iJ + 1) / 2} = g_cAttributes{l_iI}(l_cFind(l_iJ) + 2:l_cFind(l_iJ + 1) - 1);
l_iJ = l_iJ + 2;
end
continue;
end
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:Analog.maxValue');
if(size(l_cFind) > 0)
l_sMaxValue = g_cAttributes{l_iI}(l_cFind(1) + 20:l_cFind(2) - 3);
continue;
end
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:Analog.minValue');
if(size(l_cFind) > 0)
l_sMinValue = g_cAttributes{l_iI}(l_cFind(1) + 20:l_cFind(2) - 3);
continue;
end
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:Analog.normalValue');
if(size(l_cFind) > 0)
l_sNormalValue = g_cAttributes{l_iI}(l_cFind(1) + 23:l_cFind(2) - 3);
continue;
end
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:Analog.positiveFlowIn');
if(size(l_cFind) > 0)
l_sPositiveFlowIn = strcat('Boolean.', g_cAttributes{l_iI}(l_cFind(1) + 26:l_cFind(2) - 3));
continue;
end
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:Analog.SetPoint');
if(size(l_cFind) > 0)
l_sSetPoint = g_cAttributes{l_iI}(l_cFind(1) + 40:end - 3);
continue;
end
% Could not identify the attribute.
warning('Could not identify attribute for Analog! (RDF-ID: %s)', g_cObjects{g_iIterator,2});
end % End of for.
% Create this Analog.
% Every Analog is part of a PowerSystemResource. Therefore,
% Measurement.MemberOf_PowerSystemResource has to exist. If it doesn't
% exist, this block cannot be created.
if(~exist('l_sMemberOf_PowerSystemResource', 'var'))
warning('Could not create Analog, because PowerSystemResource is missing! (RDF-ID: %s)', g_cObjects{g_iIterator,2});
return;
end
for l_iI = 1:size(g_cBlocks)
if(strcmp(g_cBlocks{l_iI, 1}, l_sMemberOf_PowerSystemResource))
l_sParent = strcat(g_cBlocks{l_iI, 3}, '/', g_cBlocks{l_iI, 2});
break;
end
end
if(~exist('l_sParent', 'var'))
warning('Could not create Analog, because could not find PowerSystemResource, belonging to RDF-Resource! (RDF-ID: %s)', g_cObjects{g_iIterator, 2});
return;
end
% The name of the block in following format: IdentifiedObject.name
% (IdentifiedObject.aliasName). If both variables don't exist, it is
% the name of the class, followed by the value of 'g_iIterator'.
if(~exist('l_sName', 'var'))
l_sName = strcat('Analog', g_iIterator);
end
% The type of measurement of this Analog. If
% Measurement.measurementType exists, it is appended to the name of the
% block via [ and ].
if(exist('l_sMeasurementType', 'var'))
l_sName = strcat(l_sName, ' [', l_sMeasurementType, ']');
end
% Now, the block for this Analog can be created. Because it contains
% some Constants, it is a Subsystem.
l_cPos = getPositionIndex(g_cBlocks{l_iI, 4});
l_iLeft = l_cPos{1, 1} * (g_iOffset + g_iWidth) + g_iOffset;
l_iTop = l_cPos{1, 2} * (g_iOffset + g_iHeight) + g_iOffset;
l_aPosition = [l_iLeft, l_iTop, l_iLeft + g_iWidth, l_iTop + g_iHeight];
add_block('built-in/Subsystem', strcat(l_sParent, '/', l_sName), 'Position', l_aPosition);
% The kind of phases, this Analog measures. If Measurement.phases
% doesn't exist, it is assumed to be 'ABCN'.
l_cPos = getPositionIndex(0);
l_iLeft = l_cPos{1, 1} * (g_iOffset + g_iWidth) + g_iOffset;
l_iTop = l_cPos{1, 2} * (g_iOffset + g_iHeight) + g_iOffset;
l_aPosition = [l_iLeft, l_iTop, l_iLeft + g_iWidth, l_iTop + g_iHeight];
add_block('simulink/Sources/Enumerated Constant', strcat(l_sParent, '/', l_sName, '/phases'), 'Position', l_aPosition);
if(exist('l_sPhases', 'var'))
set_param(strcat(l_sParent, '/', l_sName, '/phases'), 'OutDataTypeStr', 'Enum: PhaseCode', 'Value', l_sPhases);
else
set_param(strcat(l_sParent, '/', l_sName, '/phases'), 'OutDataTypeStr', 'Enum: PhaseCode', 'Value', 'PhaseCode.ABCN');
end
% The unit multiplier of this Analog. If Measurement.unitMultiplier
% doesn't exist, it is set to 'none'.
l_cPos = getPositionIndex(1);
l_iLeft = l_cPos{1, 1} * (g_iOffset + g_iWidth) + g_iOffset;
l_iTop = l_cPos{1, 2} * (g_iOffset + g_iHeight) + g_iOffset;
l_aPosition = [l_iLeft, l_iTop, l_iLeft + g_iWidth, l_iTop + g_iHeight];
add_block('simulink/Sources/Enumerated Constant', strcat(l_sParent, '/', l_sName, '/unitMultiplier'), 'Position', l_aPosition);
if(exist('l_sUnitMultiplier', 'var'))
set_param(strcat(l_sParent, '/', l_sName, '/unitMultiplier'), 'OutDataTypeStr', 'Enum: UnitMultiplier', 'Value', l_sUnitMultiplier);
else
set_param(strcat(l_sParent, '/', l_sName, '/unitMultiplier'), 'OutDataTypeStr', 'Enum: UnitMultiplier', 'Value', 'UnitMultiplier.none');
end
% The unit symbol of this Analog. If Measurement.unitSymbol doesn't
% exist, it is set to 'none'.
l_cPos = getPositionIndex(2);
l_iLeft = l_cPos{1, 1} * (g_iOffset + g_iWidth) + g_iOffset;
l_iTop = l_cPos{1, 2} * (g_iOffset + g_iHeight) + g_iOffset;
l_aPosition = [l_iLeft, l_iTop, l_iLeft + g_iWidth, l_iTop + g_iHeight];
add_block('simulink/Sources/Enumerated Constant', strcat(l_sParent, '/', l_sName, '/unitSymbol'), 'Position', l_aPosition);
if(exist('l_sUnitSymbol', 'var'))
set_param(strcat(l_sParent, '/', l_sName, '/unitSymbol'), 'OutDataTypeStr', 'Enum: UnitSymbol', 'Value', l_sUnitSymbol);
else
set_param(strcat(l_sParent, '/', l_sName, '/unitSymbol'), 'OutDataTypeStr', 'Enum: UnitSymbol', 'Value', 'UnitSymbol.none');
end
% The Terminal, this Analog is connected with. It is assumed, that the
% Terminal already exists, if Measurment.Terminal exists.
if(exist('l_sTerminal', 'var'))
for l_iJ = 1:size(g_cBlocks)
if(strcmp(g_cBlocks{l_iJ, 1}, l_sTerminal))
l_sT = strcat(g_cBlocks{l_iJ, 3}, g_cBlocks{l_iJ, 2});
break;
end
end
if(exist('l_sT', 'var'))
% TODO: Connect the found Terminal with this Analog.
warning('Connections from Analogs to Terminals are currently not implemented!');
else
warning('Could not find Terminal, belonging to RDF-Resource, for Analog! (RDF-ID: %s)', g_cObjects{g_iIterator, 2});
end
end
% The normal measurement value of this Analog (Analog.normalValue) and
% it's boundaries (Analog.minValue and Analog.maxValue).
l_cPos = getPositionIndex(3);
l_iLeft = l_cPos{1, 1} * (g_iOffset + g_iWidth) + g_iOffset;
l_iTop = l_cPos{1, 2} * (g_iOffset + g_iHeight) + g_iOffset;
l_aPosition = [l_iLeft, l_iTop, l_iLeft + g_iWidth, l_iTop + g_iHeight];
add_block('built-in/Constant', strcat(l_sParent, '/', l_sName, '/value'), 'Position', l_aPosition);
if(exist('l_sNormalValue', 'var'))
if(exist('l_sMinValue', 'var'))
if(exist('l_sMaxValue', 'var'))
set_param(strcat(l_sParent, '/', l_sName, '/value'), 'Value', l_sNormalValue, 'OutMin', l_sMinValue, 'OutMax', l_sMaxValue);
else
set_param(strcat(l_sParent, '/', l_sName, '/value'), 'Value', l_sNormalValue, 'OutMin', l_sMinValue);
end
else
if(exist('l_sMaxValue', 'var'))
set_param(strcat(l_sParent, '/', l_sName, '/value'), 'Value', l_sNormalValue, 'OutMax', l_sMaxValue);
else
set_param(strcat(l_sParent, '/', l_sName, '/value'), 'Value', l_sNormalValue);
end
end
else
if(exist('l_sMinValue', 'var'))
if(exist('l_sMaxValue', 'var'))
set_param(strcat(l_sParent, '/', l_sName, '/value'), 'Value', l_sMinValue, 'OutMin', l_sMinValue, 'OutMax', l_sMaxValue);
else
set_param(strcat(l_sParent, '/', l_sName, '/value'), 'Value', l_sMinValue, 'OutMin', l_sMinValue);
end
else
if(exist('l_sMaxValue', 'var'))
set_param(strcat(l_sParent, '/', l_sName, '/value'), 'Value', l_sMaxValue, 'OutMax', l_sMaxValue);
end
end
end % End of if.
% The Analog.positiveFlowIn indicates, whether the measured value flows
% into the PowerSystemResource. If it doesn't exist, it is assumed to
% be true.
l_cPos = getPositionIndex(4);
l_iLeft = l_cPos{1, 1} * (g_iOffset + g_iWidth) + g_iOffset;
l_iTop = l_cPos{1, 2} * (g_iOffset + g_iHeight) + g_iOffset;
l_aPosition = [l_iLeft, l_iTop, l_iLeft + g_iWidth, l_iTop + g_iHeight];
add_block('simulink/Sources/Enumerated Constant', strcat(l_sParent, '/', l_sName, '/positiveFlowIn'), 'Position', l_aPosition);
if(exist('l_sPositiveFlowIn', 'var'))
set_param(strcat(l_sParent, '/', l_sName, '/positiveFlowIn'), 'OutDataTypeStr', 'Enum: Boolean', 'Value', l_sPositiveFlowIn);
else
set_param(strcat(l_sParent, '/', l_sName, '/positiveFlowIn'), 'OutDataTypeStr', 'Enum: Boolean', 'Value', 'Boolean.true');
end
% The SetPoint, this Analog is connected with. It is assumed, that the
% SetPoint already exists, if Analog.SetPoint exists.
if(exist('l_sSetPoint', 'var'))
for l_iJ = 1:size(g_cBlocks)
if(strcmp(g_cBlocks{l_iJ, 1}, l_sSetPoint))
l_sSP = strcat(g_cBlocks{l_iJ, 3}, g_cBlocks{l_iJ, 2});
break;
end
end
if(exist('l_sSP', 'var'))
% TODO: Implement creation of SetPoints.
% TODO: Connect the found SetPoint with this Analog.
warning('Connections from Analogs to SetPoints are currently not implemented!');
else
warning('Could not find SetPoint, belonging to RDF-Resource, for Analog! (RDF-ID: %s)', g_cObjects{g_iIterator, 2});
end
end
% The LimitSets, this Analog is connected with. It is assumed, that the
% AnalogLimitSets already exists, if Analog.LimitSets exists.
if(exist('l_cLimitSets', 'var'))
for l_iJ = 1:size(l_cLimitSets)
for l_iK = 1:size(g_cBlocks)
if(strcmp(g_cBlocks{l_iK, 1}, l_cLimitSets{l_iJ}))
l_sLS = strcat(g_cBlocks{l_iK, 3}, g_cBlocks{l_iK, 2});
break;
end
end
if(exist('l_sLS', 'var'))
% TODO: Implement creation of AnalogLimitSets.
% TODO: Connect the found AnalogLimitSet with this Analog.
warning('Connection from Analogs to AnalogLimitSets are currently not implemented!');
else
warning('Could not find AnalogLimitSet, belonging to RDF-Resource, for Analog! (RDF-ID: %s)', g_cObjects{g_iIterator, 2});
end
clearvars l_sLS;
end
end
% Clean up everything, that is not needed anymore.
g_cBlocks{l_iI, 4} = g_cBlocks{l_iI, 4} + 1;
g_cBlocks = cat(1, g_cBlocks, {g_cObjects{g_iIterator, 2}, l_sName, l_sParent, 5});
clearvars -except g_iIterator g_iHeight g_iWidth g_iOffset g_cObjects g_cBlocks;
end % End of function 'createAnalog'.
function createBaseVoltage()
% Use global variables.
global g_iHeight g_iIterator g_iOffset g_iWidth g_sTitle g_cAttributes g_cBlocks g_cObjects g_cTemporaryBlocks;
% Attributes of...
% ...IdentifiedObject:
global g_sDescription g_sName;
% ...BaseVoltage:
l_sIsDC = 'false';
l_sNominalVoltage = '0.0';
parseAttributes();
createIdentifiedObject();
% Identify attributes.
for l_iI = 1 : size(g_cAttributes)
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:BaseVoltage.ConductingEquipment');
if(size(l_cFind) > 0)
l_sConductingEquipment = g_cAttributes{l_iI}(l_cFind(1) + 51 : end - 3);
continue;
end
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:BaseVoltage.isDC');
if(size(l_cFind) > 0)
l_sIsDC = g_cAttributes{l_iI}(l_cFind(1) + 21 : l_cFind(2) - 3);
continue;
end
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:BaseVoltage.nominalVoltage');
if(size(l_cFind) > 0)
l_sNominalVoltage = g_cAttributes{l_iI}(l_cFind(1) + 31 : l_cFind(2) - 3);
continue;
end
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:BaseVoltage.TopologicalNode');
if(size(l_cFind) > 0)
% @Note:
% Currently not used.
%l_sTopologicalNode = g_cAttributes{l_iI}(l_cFind(1) + 47 : end - 3);
continue;
end
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:BaseVoltage.VoltageLevel');
if(size(l_cFind) > 0)
l_sVoltageLevel = g_cAttributes{l_iI}(l_cFind(1) + 44 : end - 3);
continue;
end
end % End of for.
% @BaseVoltage.ConductingEquipment, @BaseVoltage.VoltageLevel:
% Every BaseVoltage must be contained by a VoltageLevel or a
% ConductingEquipment. If neither BaseVoltage.CondcutingEquipment nor
% BaseVoltag.VoltageLevel exists, this BaseVoltage will be created
% temporarily at the top level of the system.
if(exist('l_sVoltageLevel', 'var'))
l_sParent = l_sVoltageLevel;
else
if(exist('l_sConductingEquipment', 'var'))
l_sParent = l_sConductingEquipment;
else
l_sParent = '';
end
end
if(~strcmp(l_sParent, ''))
for l_iI = 1 : size(g_cBlocks)
if(strcmp(l_sParent, g_cBlocks{l_iI}))
l_sP = strcat(g_cBlocks{l_iI, 3}, '/', g_cBlocks{l_iI, 2});
break;
end
end
end
if(~exist('l_sP', 'var'))
l_sP = g_sTitle;
l_iI = 1;
end
% @BaseVoltage.isDC:
% indicates whether the BaseVoltage is a dc or an ac source. If it
% doesn't exist, it is assumed to be false.
if(strcmpi(l_sIsDC, 'true'))
l_bIsDC = true;
else
l_bIsDC = false;
end
% Create this BaseVoltage.
l_cPos = getPositionIndex(g_cBlocks{l_iI, 4});
l_iLeft = l_cPos{1, 1} * (g_iOffset + g_iWidth) + g_iOffset;
l_iTop = l_cPos{1, 2} * (g_iOffset + g_iHeight) + g_iOffset;
l_aPosition = [l_iLeft, l_iTop, l_iLeft + g_iWidth, l_iTop + g_iHeight];
if(l_bIsDC)
add_block('fl_lib/Electrical/Electrical Sources/DC Voltage Source', strcat(l_sP, '/', g_sName), 'Position', l_aPosition);
set_param(strcat(l_sP, '/', g_sName), 'Description', g_sDescription, 'v0', l_sNominalVoltage);
else
add_block('fl_lib/Electrical/Electrical Sources/AC Voltage Source', strcat(l_sP, '/', g_sName), 'Position', l_aPosition);
set_param(strcat(l_sP, '/', g_sName), 'Description', g_sDescription, 'amp', l_sNominalVoltage);
end
% Update g_cBlocks and g_cTemporaryBlocks.
g_cBlocks{l_iI, 4} = g_cBlocks{l_iI, 4} + 1;
g_cBlocks = vertcat(g_cBlocks, {g_cObjects{g_iIterator, 2}, g_sName, l_sP, 0});
if(strcmp(l_sP, g_sTitle))
g_cTemporaryBlocks = vertcat(g_cTemporaryBlocks, {g_cObjects{g_iIterator, 2}, g_sName, l_sP});
end
% Clean up everything, that is not needed anymore.
clearvars -global -except g_iHeight g_iIterator g_iOffset g_iWidth g_dSystem g_sTitle g_cBlocks g_cObjects g_cTemporaryBlocks;
end % End of function 'createBaseVoltage'.
function createBreaker()
% Use global variables.
global g_iIterator g_iHeight g_iWidth g_iOffset g_cAttributes g_cObjects g_cBlocks;
parseAttributes();
% Identify attributes.
for l_iI = 1:size(g_cAttributes)
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:IdentifiedObject.aliasName');
if(size(l_cFind) > 0)
if(exist('l_sName', 'var'))
l_sName = strcat(l_sName, ' (', g_cAttributes{l_iI}(l_cFind(1) + 31:l_cFind(2) - 3), ')');
else
l_sName = strcat('(', g_cAttributes{l_iI}(l_cFind(1) + 31:l_cFind(2) - 3), ')');
end
continue;
end
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:IdentifiedObject.name');
if(size(l_cFind) > 0)
if(exist('l_sName', 'var'))
l_sName = strcat(g_cAttributes{l_iI}(l_cFind(1) + 26:l_cFind(2) - 3), ' ', l_sName);
else
l_sName = g_cAttributes{l_iI}(l_cFind(1) + 26:l_cFind(2) - 3);
end
continue;
end
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:PowerSystemResource.PSRType');
if(size(l_cFind) > 0)
l_sPSRType = g_cAttributes{l_iI}(l_cFind(1) + 47:end - 3);
continue;
end
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:Equipment.aggregate');
if(size(l_cFind) > 0)
l_sAggregate = strcat('Boolean.', g_cAttributes{l_iI}(l_cFind(1) + 24:l_cFind(2) - 3));
continue;
end
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:Equipment.MemberOf_EquipmentContainer');
if(size(l_cFind) > 0)
l_sMemberOf_EquipmentContainer = g_cAttributes{l_iI}(l_cFind(1) + 57:end - 3);
continue;
end
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:Equipment.normallyInService');
if(size(l_cFind) > 0)
l_sNormallyInService = strcat('Boolean.', g_cAttributes{l_iI}(l_cFind(1) + 32:l_cFind(2) - 3));
continue;
end
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:ConductingEquipment.BaseVoltage');
if(size(l_cFind) > 0)
l_sBaseVoltage = g_cAttributes{l_iI}(l_cFind(1) + 51:end - 3);
continue;
end
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:Switch.MemberOf_CompositeSwitch');
if(size(l_cFind) > 0)
l_sMemberOf_CompositeSwitch = g_cAttributes{l_iI}(l_cFind(1) + 51:end - 3);
continue;
end
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:Switch.normalOpen');
if(size(l_cFind) > 0)
l_sNormalOpen = strcat('Boolean.', g_cAttributes{l_iI}(l_cFind(1) + 22:l_cFind(2) - 3));
continue;
end
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:Switch.ratedCurrent');
if(size(l_cFind) > 0)
l_sRatedCurrent = g_cAttributes{l_iI}(l_cFind(1) + 24:l_cFind(2) - 3);
continue;
end
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:Switch.retained');
if(size(l_cFind) > 0)
l_sRetained = strcat('Boolean.', g_cAttributes{l_iI}(l_cFind(1) + 20:l_cFind(2) - 3));
continue;
end
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:Switch.switchOnCount');
if(size(l_cFind) > 0)
l_sSwitchOnCount = g_cAttributes{l_iI}(l_cFind(1) + 25:l_cFind(2) - 3);
continue;
end
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:Switch.switchOnDate');
if(size(l_cFind) > 0)
l_sSwitchOnDate = g_cAttributes{l_iI}(l_cFind(1) + 24:l_cFind(2) - 3);
continue;
end
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:ProtectedSwitch.breakingCapacity');
if(size(l_cFind) > 0)
l_sBreakingCapacity = g_cAttributes{l_iI}(l_cFind(1) + 37:l_cFind(2) - 3);
continue;
end
l_cFind = strfind(g_cAttributes{l_iI}, 'cim:Breaker.inTransitTime');
if(size(l_cFind) > 0)
l_sInTransitTime = g_cAttributes{l_iI}(l_cFind(1) + 26:l_cFind(2) - 3);
continue;
end
warning('Could not identify attribute for Breaker! (RDF-ID: %s)', g_cObjects{g_iIterator,2});
end % End of for.
% Create this Breaker.
% Every Breaker must be contained by a CompositeSwitch or an
% EquipmentContainer. If Switch.MemberOf_CompositeSwitch and
% Equipment.MemberOf_EquipmentContainer doesn't exist, this Breaker