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manual_dataSet.m
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manual_dataSet.m
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%% manual_dataSet.m
% Used for build dataSet and allow the manual input of SyR-e
%% Main data
dataSet.NumOfPolePairs = 2; % number of pole pairs
dataSet.NumOfSlots = 2; % number of slot per pole per phase
dataSet.AirGapThickness = 0.5; % airgap thichness [mm]
dataSet.StatorOuterRadius = 67.5; % stator outer radius [mm]
dataSet.AirGapRadius = 40.55; % rotor outer radius [mm]
dataSet.ShaftRadius = 17; % shaft radius [mm]
dataSet.StackLength = 101; % stack length [mm]
dataSet.TypeOfRotor = 'Circular'; % type of rotor: Circular, Seg, ISeg, Fluid, SPM
% parameter for parametric design
dataSet.xRange = [0.5 0.8]; % x=rotor/stator radius
dataSet.bRange = [0.3 0.7]; % b=iron/copper
dataSet.CurrOverLoad = 2; % current overload [pu]
dataSet.Bfe = 1.5; % Steel loading [T]
dataSet.kt = 1; % tooth factor
%% Geometrical data
dataSet.MagLoadingYoke = 0.5; % magnetic loading in the yoke
dataSet.MagLoadingTooth = 1; % magnetic loading tooth
% stator
dataSet.ToothLength = 16.81; % tooth length [mm]
dataSet.ToothWidth = 5.31; % tooth width [mm]
dataSet.StatorSlotOpen = 0.25; % stator slot open [pu]
dataSet.ToothTangDepth = 0.75; % tooth shoe depth [mm]
dataSet.ToothTangAngle = 25; % tooth shoe angle [°]
dataSet.FilletCorner = 1; % radius of the fillet at the back iron corner of the slot [mm]
% rotor
dataSet.NumOfLayers = 3; % number of layer
dataSet.ALPHApu = [0.4 0.25 0.25]; % angle of the flux barrier [pu]
dataSet.HCpu = [0.5 0.5 0.5]; % width of flux barrier [pu]
dataSet.DepthOfBarrier = [0 0 0]; % barrier translation on q-axis [pu]
dataSet.RadRibCheck = 0; % check for manual radial ribs input
dataSet.RadRibEdit = [0 0 0]; % manual input of radial ribs [mm]
%dataSet.SlopeBarrier = 60; %angle in degree - rev.Gallo
% SPM
if strcmp(dataSet.TypeOfRotor,'SPM')
dataSet.DepthOfBarrier = 1; % number of segment
end
dataSet.ThicknessOfPM = 5; % thickness of PM [mm]
dataSet.AngleSpanOfPM = 150; % angle span of PM [electrical degree]
%% Other option data
dataSet.AdmiJouleLosses = 1000; % Permitted Joule losses [W]
dataSet.TargetCopperTemp = 130; % Target copper temperature [°C]
dataSet.HousingTemp = 70; % Housing temperature [°C]
dataSet.OverSpeed = 4000; % maximum speed [rpm]
dataSet.Mesh = 2; % mesh parameter
dataSet.Mesh_MOOA = 10; % mesh parameter
dataSet.MinMechTol = 0.4; % minimum mechanical dimension [mm]
dataSet.BarFillFac = 1; % barrier filling factor [pu] (only for circular geometry)
dataSet.Br = 0.4; % remanence of PM [T] (used only for Bonded-Magnet)
dataSet.EstimatedCopperTemp = 130; % estimated copper temperature
dataSet.Rs = NaN; % phase resistance (evaluated from scripts)
%Seg and ISeg PMs
dataSet.Areaob = zeros(1,4);
dataSet.Areavert = zeros(1,4);
dataSet.Areatot = zeros(1,4);
dataSet.dob = ones(1,4);
dataSet.dvert = ones(1,4);
dataSet.Areaob0 = zeros(1,4);
dataSet.Areavert0 = zeros(1,4);
%% Windings data
dataSet.SlotFillFactor = 0.407; % slot filling factor [pu]
dataSet.TurnsInSeries = 122; % turns in series per phase
dataSet.PitchShortFac = 1; % shortening factor
dataSet.SlotLayerPosCheck = 1; % if 1, in the fractional slot, the slot layers are side-by-side
dataSet.Qs = 6; % number of simulated slots
dataSet.WinMatr = [1 1 -3 -3 2 2
1 1 -3 -3 2 2]; % winding matrix
%% Materials data
dataSet.SlotMaterial = 'Copper'; % slot material
dataSet.StatorMaterial = 'M600-50A'; % stator core material
dataSet.RotorMaterial = 'M600-50A'; % rotor core material
dataSet.FluxBarrierMaterial = 'Bonded-Magnet'; % flux barrier material
dataSet.ShaftMaterial = 'M600-50A'; % shaft material
dataSet.RotorCondMaterial = 'Copper'; % rotor conductor material
%% Optimization data
% optimization parameters
dataSet.MaxGen = 3; % number of generation
dataSet.XPop = 4; % number of individuals for each generation
dataSet.SimPoMOOA = 5; % number of simulated position during evolution
dataSet.RotPoMOOA = 30; % rotor angular excursion during evolution [elt degree]
dataSet.SimPoFine = 31; % number of simulated position during Pareto front re-evaluation
dataSet.RotPoFine = 60; % rotor angular excursion during Pareto front re-evaluaton [elt degree]
dataSet.XFEMMOpt = 'N'; % use XFEMM for optimization
dataSet.RMVTmp = 'ON'; % remove temp files (only for XFEMM)
dataSet.randFactor = 0; % noise factor for position number reduction
% variables check
dataSet.Dalpha1BouCheck = 1; % first (outer) barrier angle
dataSet.DalphaBouCheck = 1; % other barrier angle
dataSet.hcBouCheck = 1; % flux barrier width
dataSet.DxBouCheck = 1; % flux barrier translation
dataSet.GapBouCheck = 0; % airgap thickness
dataSet.BrBouCheck = 0; % remanence of PM
dataSet.AirgapRadiusBouCheck = 0; % rotor radius
dataSet.ToothWidthBouCheck = 0; % tooth width
dataSet.ToothLengthBouCheck = 0; % tooth length
dataSet.StatorSlotOpenBouCheck = 0; % stator slot open
dataSet.ToothTangDepthBouCheck = 0; % tooth shoe depth
dataSet.GammaBouCheck = 0; % current phase angle
% boundary
dataSet.Alpha1Bou = [0.25 0.5]; % first (outer) barrier angle
dataSet.DeltaAlphaBou = [0.17 0.5]; % other barrier angle
dataSet.hcBou = [0.2 1]; % flux barrier width
dataSet.DfeBou = [-0.75 0.75]; % flux barrier translation
dataSet.GapBou = [0.4 0.8]; % airgap thickness
dataSet.BrBou = [0.3 0.4]; % remanence of PM
dataSet.GapRadiusBou = [52 78]; % rotor radius
dataSet.ToothWiBou = [3.8 6.3]; % tooth width
dataSet.ToothLeBou = [15 22.2]; % tooth length
dataSet.StatorSlotOpenBou = [0.2 0.3]; % stator slot open
dataSet.ToothTangDepthBou = [0.8 1.2]; % tooth shoe depth
dataSet.PhaseAngleCurrBou = [40 75]; % current phase angle
% objectives check
dataSet.TorqueOptCheck = 1; % maximize torque
dataSet.TorRipOptCheck = 1; % minimize peak-to-peak torque ripple
dataSet.MassCuOptCheck = 0; % minimize the copper mass
% objective values
dataSet.MinExpTorque = 10; % minimum expected torque
dataSet.MaxRippleTorque = 2; % max admitted torque ripple
dataSet.MaxCuMass = 10; % max admitted copper mass
%% Post-processing data
dataSet.XFEMMPPMot = 'N'; % post-process with XFEMM
dataSet.AngularSpanPP = 60; % rotor angular excursion [elt degree]
dataSet.GammaPP = 45; % phase current angle [elt degree]
dataSet.CurrLoPP = 1; % current load [pu]
dataSet.NumOfRotPosPP = 7; % number of rotor position
dataSet.BrPP = 0.4; % remanence of PM [T]
dataSet.NumGrid = 10; % number of points for 1 side of the map
% iron loss
dataSet.LossEvaluationCheck = 0; % evaluate also the iron losses
dataSet.EvalSpeed = 1000; % evaluation speed [rpm]