function out = model
%
% ichichaa.m
%
% Model exported on Nov 16 2015, 19:13 by COMSOL 4.4.0.150.

import com.comsol.model.*
import com.comsol.model.util.*

model = ModelUtil.create('Model');

model.modelPath('C:\Users\Annisanurf\Documents\SIMULASI\Latihan');

model.modelNode.create('comp1');

model.geom.create('geom1', 3);

model.mesh.create('mesh1', 'geom1');

model.physics.create('mf', 'InductionCurrents', 'geom1');
model.physics.create('cir', 'Circuit', 'geom1');

model.study.create('std1');
model.study('std1').feature.create('time', 'Transient');
model.study('std1').feature('time').activate('mf', true);
model.study('std1').feature('time').activate('cir', true);

model.geom('geom1').lengthUnit('mm');
model.geom('geom1').scaleUnitValue(true);
model.geom('geom1').feature.create('imp1', 'Import');
model.geom('geom1').feature('imp1').set('filename', 'C:\Users\Annisanurf\Documents\SIMULASI\Latihan\icichaa.mphbin');
model.geom('geom1').feature('imp1').importData;
model.geom('geom1').run('imp1');
model.geom('geom1').feature.create('sph1', 'Sphere');
model.geom('geom1').feature('sph1').set('r', '20');

model.view('view1').hideObjects.create('hide1');
model.view('view1').hideObjects('hide1').init;
model.view('view1').hideObjects('hide1').add({'imp1(6)'});

model.geom('geom1').runPre('fin');
model.geom('geom1').run;

model.material.create('mat1');
model.material('mat1').name('Air');
model.material('mat1').set('family', 'air');
model.material('mat1').propertyGroup('def').set('relpermeability', '1');
model.material('mat1').propertyGroup('def').set('relpermittivity', '1');
model.material('mat1').propertyGroup('def').set('dynamicviscosity', 'eta(T[1/K])[Pa*s]');
model.material('mat1').propertyGroup('def').set('ratioofspecificheat', '1.4');
model.material('mat1').propertyGroup('def').set('electricconductivity', '0[S/m]');
model.material('mat1').propertyGroup('def').set('heatcapacity', 'Cp(T[1/K])[J/(kg*K)]');
model.material('mat1').propertyGroup('def').set('density', 'rho(pA[1/Pa],T[1/K])[kg/m^3]');
model.material('mat1').propertyGroup('def').set('thermalconductivity', 'k(T[1/K])[W/(m*K)]');
model.material('mat1').propertyGroup('def').set('soundspeed', 'cs(T[1/K])[m/s]');
model.material('mat1').propertyGroup('def').func.create('eta', 'Piecewise');
model.material('mat1').propertyGroup('def').func('eta').set('funcname', 'eta');
model.material('mat1').propertyGroup('def').func('eta').set('arg', 'T');
model.material('mat1').propertyGroup('def').func('eta').set('extrap', 'constant');
model.material('mat1').propertyGroup('def').func('eta').set('pieces', {'200.0' '1600.0' '-8.38278E-7+8.35717342E-8*T^1-7.69429583E-11*T^2+4.6437266E-14*T^3-1.06585607E-17*T^4'});
model.material('mat1').propertyGroup('def').func.create('Cp', 'Piecewise');
model.material('mat1').propertyGroup('def').func('Cp').set('funcname', 'Cp');
model.material('mat1').propertyGroup('def').func('Cp').set('arg', 'T');
model.material('mat1').propertyGroup('def').func('Cp').set('extrap', 'constant');
model.material('mat1').propertyGroup('def').func('Cp').set('pieces', {'200.0' '1600.0' '1047.63657-0.372589265*T^1+9.45304214E-4*T^2-6.02409443E-7*T^3+1.2858961E-10*T^4'});
model.material('mat1').propertyGroup('def').func.create('rho', 'Analytic');
model.material('mat1').propertyGroup('def').func('rho').set('funcname', 'rho');
model.material('mat1').propertyGroup('def').func('rho').set('args', {'pA' 'T'});
model.material('mat1').propertyGroup('def').func('rho').set('expr', 'pA*0.02897/8.314/T');
model.material('mat1').propertyGroup('def').func('rho').set('dermethod', 'manual');
model.material('mat1').propertyGroup('def').func('rho').set('argders', {'pA' 'd(pA*0.02897/8.314/T,pA)'; 'T' 'd(pA*0.02897/8.314/T,T)'});
model.material('mat1').propertyGroup('def').func.create('k', 'Piecewise');
model.material('mat1').propertyGroup('def').func('k').set('funcname', 'k');
model.material('mat1').propertyGroup('def').func('k').set('arg', 'T');
model.material('mat1').propertyGroup('def').func('k').set('extrap', 'constant');
model.material('mat1').propertyGroup('def').func('k').set('pieces', {'200.0' '1600.0' '-0.00227583562+1.15480022E-4*T^1-7.90252856E-8*T^2+4.11702505E-11*T^3-7.43864331E-15*T^4'});
model.material('mat1').propertyGroup('def').func.create('cs', 'Analytic');
model.material('mat1').propertyGroup('def').func('cs').set('funcname', 'cs');
model.material('mat1').propertyGroup('def').func('cs').set('args', {'T'});
model.material('mat1').propertyGroup('def').func('cs').set('expr', 'sqrt(1.4*287*T)');
model.material('mat1').propertyGroup('def').func('cs').set('dermethod', 'manual');
model.material('mat1').propertyGroup('def').func('cs').set('argders', {'T' 'd(sqrt(1.4*287*T),T)'});
model.material('mat1').propertyGroup('def').addInput('temperature');
model.material('mat1').propertyGroup('def').addInput('pressure');
model.material('mat1').propertyGroup.create('RefractiveIndex', 'Refractive index');
model.material('mat1').propertyGroup('RefractiveIndex').set('n', '1');
model.material('mat1').set('family', 'air');
model.material('mat1').selection.set([1]);
model.material.create('mat2');
model.material('mat2').name('Air (2)');
model.material('mat2').set('family', 'air');
model.material('mat2').propertyGroup('def').set('relpermeability', '1');
model.material('mat2').propertyGroup('def').set('relpermittivity', '1');
model.material('mat2').propertyGroup('def').set('dynamicviscosity', 'eta(T[1/K])[Pa*s]');
model.material('mat2').propertyGroup('def').set('ratioofspecificheat', '1.4');
model.material('mat2').propertyGroup('def').set('electricconductivity', '0[S/m]');
model.material('mat2').propertyGroup('def').set('heatcapacity', 'Cp(T[1/K])[J/(kg*K)]');
model.material('mat2').propertyGroup('def').set('density', 'rho(pA[1/Pa],T[1/K])[kg/m^3]');
model.material('mat2').propertyGroup('def').set('thermalconductivity', 'k(T[1/K])[W/(m*K)]');
model.material('mat2').propertyGroup('def').set('soundspeed', 'cs(T[1/K])[m/s]');
model.material('mat2').propertyGroup('def').func.create('eta', 'Piecewise');
model.material('mat2').propertyGroup('def').func('eta').set('funcname', 'eta');
model.material('mat2').propertyGroup('def').func('eta').set('arg', 'T');
model.material('mat2').propertyGroup('def').func('eta').set('extrap', 'constant');
model.material('mat2').propertyGroup('def').func('eta').set('pieces', {'200.0' '1600.0' '-8.38278E-7+8.35717342E-8*T^1-7.69429583E-11*T^2+4.6437266E-14*T^3-1.06585607E-17*T^4'});
model.material('mat2').propertyGroup('def').func.create('Cp', 'Piecewise');
model.material('mat2').propertyGroup('def').func('Cp').set('funcname', 'Cp');
model.material('mat2').propertyGroup('def').func('Cp').set('arg', 'T');
model.material('mat2').propertyGroup('def').func('Cp').set('extrap', 'constant');
model.material('mat2').propertyGroup('def').func('Cp').set('pieces', {'200.0' '1600.0' '1047.63657-0.372589265*T^1+9.45304214E-4*T^2-6.02409443E-7*T^3+1.2858961E-10*T^4'});
model.material('mat2').propertyGroup('def').func.create('rho', 'Analytic');
model.material('mat2').propertyGroup('def').func('rho').set('funcname', 'rho');
model.material('mat2').propertyGroup('def').func('rho').set('args', {'pA' 'T'});
model.material('mat2').propertyGroup('def').func('rho').set('expr', 'pA*0.02897/8.314/T');
model.material('mat2').propertyGroup('def').func('rho').set('dermethod', 'manual');
model.material('mat2').propertyGroup('def').func('rho').set('argders', {'pA' 'd(pA*0.02897/8.314/T,pA)'; 'T' 'd(pA*0.02897/8.314/T,T)'});
model.material('mat2').propertyGroup('def').func.create('k', 'Piecewise');
model.material('mat2').propertyGroup('def').func('k').set('funcname', 'k');
model.material('mat2').propertyGroup('def').func('k').set('arg', 'T');
model.material('mat2').propertyGroup('def').func('k').set('extrap', 'constant');
model.material('mat2').propertyGroup('def').func('k').set('pieces', {'200.0' '1600.0' '-0.00227583562+1.15480022E-4*T^1-7.90252856E-8*T^2+4.11702505E-11*T^3-7.43864331E-15*T^4'});
model.material('mat2').propertyGroup('def').func.create('cs', 'Analytic');
model.material('mat2').propertyGroup('def').func('cs').set('funcname', 'cs');
model.material('mat2').propertyGroup('def').func('cs').set('args', {'T'});
model.material('mat2').propertyGroup('def').func('cs').set('expr', 'sqrt(1.4*287*T)');
model.material('mat2').propertyGroup('def').func('cs').set('dermethod', 'manual');
model.material('mat2').propertyGroup('def').func('cs').set('argders', {'T' 'd(sqrt(1.4*287*T),T)'});
model.material('mat2').propertyGroup('def').addInput('temperature');
model.material('mat2').propertyGroup('def').addInput('pressure');
model.material('mat2').propertyGroup.create('RefractiveIndex', 'Refractive index');
model.material('mat2').propertyGroup('RefractiveIndex').set('n', '1');
model.material('mat2').set('family', 'air');
model.material.create('mat3');
model.material('mat3').name('Copper');
model.material('mat3').set('family', 'copper');
model.material('mat3').propertyGroup('def').set('relpermeability', '1');
model.material('mat3').propertyGroup('def').set('electricconductivity', '5.998e7[S/m]');
model.material('mat3').propertyGroup('def').set('thermalexpansioncoefficient', '17e-6[1/K]');
model.material('mat3').propertyGroup('def').set('heatcapacity', '385[J/(kg*K)]');
model.material('mat3').propertyGroup('def').set('relpermittivity', '1');
model.material('mat3').propertyGroup('def').set('density', '8700[kg/m^3]');
model.material('mat3').propertyGroup('def').set('thermalconductivity', '400[W/(m*K)]');
model.material('mat3').propertyGroup.create('Enu', 'Young''s modulus and Poisson''s ratio');
model.material('mat3').propertyGroup('Enu').set('poissonsratio', '0.35');
model.material('mat3').propertyGroup('Enu').set('youngsmodulus', '110e9[Pa]');
model.material('mat3').propertyGroup.create('linzRes', 'Linearized resistivity');
model.material('mat3').propertyGroup('linzRes').set('alpha', '0.0039[1/K]');
model.material('mat3').propertyGroup('linzRes').set('rho0', '1.72e-8[ohm*m]');
model.material('mat3').propertyGroup('linzRes').set('Tref', '298[K]');
model.material('mat3').set('family', 'copper');
model.material('mat2').selection.set([]);
model.material('mat2').selection.all;
model.material('mat2').selection.set([2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19]);
model.material('mat3').selection.all;
model.material('mat3').selection.set([2 3 4 5 7 8 10 11 12 13 14 15 16 17 18 19]);
model.material('mat2').selection.set([9]);
model.material('mat1').selection.set([1 6]);

model.view('view1').hideEntities.create('hide1');
model.view('view1').hideEntities('hide1').geom(3);
model.view('view1').hideEntities('hide1').add([1]);
model.view('view1').hideEntities.clear;

model.material('mat1').propertyGroup('def').set('electricconductivity', {'10[S/m]'});
model.material('mat2').propertyGroup('def').set('electricconductivity', {'10[S/m]'});

model.physics('mf').prop('ShapeProperty').set('order_magneticvectorpotential', 1, '1');
model.physics('mf').feature.create('mtcd1', 'MultiTurnCoilDomain', 3);

model.view('view1').hideEntities.create('hide1');
model.view('view1').hideEntities('hide1').geom(3);
model.view('view1').hideEntities('hide1').add([1]);

model.physics('mf').feature('mtcd1').selection.set([2 3 4 5]);
model.physics('mf').feature('mtcd1').set('CoilType', 1, 'Numeric');
model.physics('mf').feature('mtcd1').set('N', 1, '30');
model.physics('mf').feature('mtcd1').set('CoilExcitation', 1, 'CircuitCurrent');
model.physics('mf').feature('mtcd1').feature.create('ccc1', 'CoilCurrentCalculation', 3);
model.physics('mf').feature('mtcd1').feature('ccc1').selection.set([2 3 4 5]);
model.physics('mf').feature('mtcd1').feature('ccc1').feature.create('ci1', 'CoilInsulation', 2);
model.physics('mf').feature('mtcd1').feature('ccc1').feature('ci1').selection.set([6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25]);
model.physics('mf').feature('mtcd1').feature('ccc1').feature.create('ct1', 'CoilTerminal', 2);
model.physics('mf').feature('mtcd1').feature('ccc1').feature('ct1').selection.set([6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25 26 27 28 29 30 31 32 33 34 35 36 37 38 39 40 41 42 43 44 45 46 47 48 49 50 51 52 53 54 55 56 57 58 59 60 61 62 63 64 65 66 67 68 69 70 71 72 73 74 75 76 77 78 79 80 81 82 83 84 85 86 87 88 89 90 91 92 93 94 95 96 97 98 99 100]);
model.physics('mf').feature('mtcd1').feature('ccc1').feature('ci1').selection.set([6 7 9 10 11 12 13 15 16 17 19 20 22 23 24 25]);
model.physics('mf').feature('mtcd1').feature('ccc1').feature('ct1').selection.set([14]);
model.physics('mf').feature.create('gfa1', 'GaugeFixingA', 3);
model.physics('mf').feature('gfa1').selection.set([2 3 4 5]);
model.physics('mf').feature('gfa1').set('SetPointConstraint', 1, '1');
model.physics('mf').feature.create('mtcd2', 'MultiTurnCoilDomain', 3);
model.physics('mf').feature('mtcd2').selection.set([7 8 12 13]);
model.physics('mf').feature('mtcd2').set('CoilType', 1, 'Numeric');
model.physics('mf').feature('mtcd2').set('N', 1, '30');
model.physics('mf').feature('mtcd2').set('CoilExcitation', 1, 'CircuitCurrent');
model.physics('mf').feature('mtcd2').feature.create('ccc1', 'CoilCurrentCalculation', 3);
model.physics('mf').feature('mtcd2').feature('ccc1').selection.set([7 8 12 13]);
model.physics('mf').feature('mtcd2').feature('ccc1').feature.create('ci1', 'CoilInsulation', 2);
model.physics('mf').feature('mtcd2').feature('ccc1').feature('ci1').selection.set([31 32 33 34 35 36 48 49 53 54 55 57 58 59 60 61]);
model.physics('mf').feature('mtcd2').feature('ccc1').feature.create('ct1', 'CoilTerminal', 2);
model.physics('mf').feature('mtcd2').feature('ccc1').feature('ct1').selection.set([52]);
model.physics('mf').feature.create('gfa2', 'GaugeFixingA', 3);
model.physics('mf').feature('gfa2').selection.set([7 8 12 13]);
model.physics('mf').feature('gfa2').set('SetPointConstraint', 1, '1');
model.physics('mf').feature.create('mtcd3', 'MultiTurnCoilDomain', 3);
model.physics('mf').feature('mtcd3').selection.set([16 17 18 19]);
model.physics('mf').feature('mtcd3').set('CoilType', 1, 'Numeric');
model.physics('mf').feature('mtcd3').set('N', 1, '30');
model.physics('mf').feature('mtcd3').set('CoilExcitation', 1, 'CircuitCurrent');
model.physics('mf').feature('mtcd3').feature.create('ccc1', 'CoilCurrentCalculation', 3);
model.physics('mf').feature('mtcd3').feature('ccc1').selection.set([16 17 18 19]);
model.physics('mf').feature('mtcd3').feature('ccc1').feature.create('ci1', 'CoilInsulation', 2);
model.physics('mf').feature('mtcd3').feature('ccc1').feature('ci1').selection.set([80 81 83 84 85 86 87 89 90 91 93 94 96 97 98 99]);
model.physics('mf').feature('mtcd3').feature('ccc1').feature.create('ct1', 'CoilTerminal', 2);
model.physics('mf').feature('mtcd3').feature('ccc1').feature('ct1').selection.set([88]);
model.physics('mf').feature.create('gfa3', 'GaugeFixingA', 3);
model.physics('mf').feature('gfa3').selection.set([16 17 18 19]);
model.physics('mf').feature('gfa3').set('SetPointConstraint', 1, '1');
model.physics('mf').feature.create('mtcd4', 'MultiTurnCoilDomain', 3);
model.physics('mf').feature('mtcd4').selection.set([10 11 14 15]);
model.physics('mf').feature('mtcd4').set('CoilType', 1, 'Numeric');
model.physics('mf').feature('mtcd4').set('N', 1, '30');
model.physics('mf').feature('mtcd4').set('CoilExcitation', 1, 'CircuitCurrent');
model.physics('mf').feature('mtcd4').feature.create('ccc1', 'CoilCurrentCalculation', 3);
model.physics('mf').feature('mtcd4').feature('ccc1').selection.set([10 11 14 15]);
model.physics('mf').feature('mtcd4').feature('ccc1').feature.create('ci1', 'CoilInsulation', 2);
model.physics('mf').feature('mtcd4').feature('ccc1').feature('ci1').selection.set([42 43 44 45 46 47 50 51 69 70 71 73 74 75 76 77]);
model.physics('mf').feature('mtcd4').feature('ccc1').feature.create('ct1', 'CoilTerminal', 2);
model.physics('mf').feature('mtcd4').feature('ccc1').feature('ct1').selection.set([68]);
model.physics('mf').feature.create('gfa4', 'GaugeFixingA', 3);
model.physics('mf').feature('gfa4').selection.set([10 11 14 15]);
model.physics('mf').feature('gfa4').set('SetPointConstraint', 1, '1');
model.physics('cir').feature.create('V1', 'VoltageSource', -1);
model.physics('cir').feature('V1').set('Connections', 1, 1, '5');
model.physics('cir').feature('V1').set('sourceType', 1, 'SineSource');
model.physics('cir').feature('V1').set('value', 1, '12.5[V]');
model.physics('cir').feature('V1').set('freq', 1, '100[kHz]');
model.physics('cir').feature.create('IvsU1', 'ModelDeviceIV', -1);
model.physics('cir').feature('IvsU1').set('V_src', 1, 'root.comp1.mf.VCoil_1');
model.physics('cir').feature.create('R1', 'Resistor', -1);
model.physics('cir').feature('R1').set('Connections', 1, 1, '0');
model.physics('cir').feature('R1').set('Connections', 2, 1, '1');
model.physics('cir').feature('R1').set('R', 1, ['50[' 'ohm' ']']);
model.physics('cir').feature.create('IvsU2', 'ModelDeviceIV', -1);
model.physics('cir').feature('IvsU2').set('Connections', 1, 1, '2');
model.physics('cir').feature('IvsU2').set('V_src', 1, 'root.comp1.mf.VCoil_2');
model.physics('cir').feature.create('R2', 'Resistor', -1);
model.physics('cir').feature('R2').set('Connections', 1, 1, '0');
model.physics('cir').feature('R2').set('Connections', 2, 1, '2');
model.physics('cir').feature('R2').set('R', 1, ['50[' 'ohm' ']']);
model.physics('cir').feature.create('IvsU3', 'ModelDeviceIV', -1);
model.physics('cir').feature('IvsU3').set('Connections', 1, 1, '3');
model.physics('cir').feature('IvsU3').set('V_src', 1, 'root.comp1.mf.VCoil_3');
model.physics('cir').feature.create('R3', 'Resistor', -1);
model.physics('cir').feature('R3').set('Connections', 1, 1, '0');
model.physics('cir').feature('R3').set('Connections', 2, 1, '3');
model.physics('cir').feature('R3').set('R', 1, ['50[' 'ohm' ']']);
model.physics('cir').feature.create('IvsU4', 'ModelDeviceIV', -1);
model.physics('cir').feature('IvsU4').set('Connections', 1, 1, '4');
model.physics('cir').feature('IvsU4').set('V_src', 1, 'root.comp1.mf.VCoil_4');
model.physics('cir').feature.create('R4', 'Resistor', -1);
model.physics('cir').feature('R4').set('Connections', 1, 1, '0');
model.physics('cir').feature('R4').set('Connections', 2, 1, '4');
model.physics('cir').feature('R4').set('R', 1, ['50[' 'ohm' ']']);
model.physics('cir').feature('V1').set('Connections', 2, 1, '1');
model.physics('cir').feature('V1').set('Connections', 2, 1, '0');
model.physics('cir').feature('IvsU1').set('Connections', 2, 1, '5');

model.mesh('mesh1').run;

model.view('view1').hideEntities.clear;

model.study('std1').feature.create('ccc', 'CoilCurrentCalculation');
model.study('std1').feature.create('ccc2', 'CoilCurrentCalculation');
model.study('std1').feature('ccc2').set('CoilName', '2');
model.study('std1').feature.create('ccc3', 'CoilCurrentCalculation');
model.study('std1').feature('ccc3').set('CoilName', '3');
model.study('std1').feature.create('ccc4', 'CoilCurrentCalculation');
model.study('std1').feature('ccc4').set('CoilName', '4');
model.study('std1').feature.move('time', 4);
model.study('std1').feature('time').set('tlist', 'range(0,5.0e-8,3.0e-5)');
model.study('std1').feature('time').set('rtolactive', 'on');
model.study('std1').feature('time').set('rtol', '0.001');

model.sol.create('sol1');
model.sol('sol1').study('std1');
model.sol('sol1').feature.create('st1', 'StudyStep');
model.sol('sol1').feature('st1').set('study', 'std1');
model.sol('sol1').feature('st1').set('studystep', 'ccc');
model.sol('sol1').feature.create('v1', 'Variables');
model.sol('sol1').feature('v1').set('control', 'ccc');
model.sol('sol1').feature.create('e1', 'Eigenvalue');
model.sol('sol1').feature('e1').set('shift', '0');
model.sol('sol1').feature('e1').set('neigs', 1);
model.sol('sol1').feature('e1').set('control', 'ccc');
model.sol('sol1').feature.create('su1', 'StoreSolution');
model.sol('sol1').feature.create('st2', 'StudyStep');
model.sol('sol1').feature('st2').set('study', 'std1');
model.sol('sol1').feature('st2').set('studystep', 'ccc2');
model.sol('sol1').feature.create('v2', 'Variables');
model.sol('sol1').feature('v2').set('initmethod', 'sol');
model.sol('sol1').feature('v2').set('initsol', 'sol1');
model.sol('sol1').feature('v2').set('notsolmethod', 'sol');
model.sol('sol1').feature('v2').set('notsol', 'sol1');
model.sol('sol1').feature('v2').set('control', 'ccc2');
model.sol('sol1').feature.create('e2', 'Eigenvalue');
model.sol('sol1').feature('e2').set('shift', '0');
model.sol('sol1').feature('e2').set('neigs', 1);
model.sol('sol1').feature('e2').set('control', 'ccc2');
model.sol('sol1').feature.create('su2', 'StoreSolution');
model.sol('sol1').feature.create('st3', 'StudyStep');
model.sol('sol1').feature('st3').set('study', 'std1');
model.sol('sol1').feature('st3').set('studystep', 'ccc3');
model.sol('sol1').feature.create('v3', 'Variables');
model.sol('sol1').feature('v3').set('initmethod', 'sol');
model.sol('sol1').feature('v3').set('initsol', 'sol1');
model.sol('sol1').feature('v3').set('notsolmethod', 'sol');
model.sol('sol1').feature('v3').set('notsol', 'sol1');
model.sol('sol1').feature('v3').set('control', 'ccc3');
model.sol('sol1').feature.create('e3', 'Eigenvalue');
model.sol('sol1').feature('e3').set('shift', '0');
model.sol('sol1').feature('e3').set('neigs', 1);
model.sol('sol1').feature('e3').set('control', 'ccc3');
model.sol('sol1').feature.create('su3', 'StoreSolution');
model.sol('sol1').feature.create('st4', 'StudyStep');
model.sol('sol1').feature('st4').set('study', 'std1');
model.sol('sol1').feature('st4').set('studystep', 'ccc4');
model.sol('sol1').feature.create('v4', 'Variables');
model.sol('sol1').feature('v4').set('initmethod', 'sol');
model.sol('sol1').feature('v4').set('initsol', 'sol1');
model.sol('sol1').feature('v4').set('notsolmethod', 'sol');
model.sol('sol1').feature('v4').set('notsol', 'sol1');
model.sol('sol1').feature('v4').set('control', 'ccc4');
model.sol('sol1').feature.create('e4', 'Eigenvalue');
model.sol('sol1').feature('e4').set('shift', '0');
model.sol('sol1').feature('e4').set('neigs', 1);
model.sol('sol1').feature('e4').set('control', 'ccc4');
model.sol('sol1').feature.create('su4', 'StoreSolution');
model.sol('sol1').feature.create('st5', 'StudyStep');
model.sol('sol1').feature('st5').set('study', 'std1');
model.sol('sol1').feature('st5').set('studystep', 'time');
model.sol('sol1').feature.create('v5', 'Variables');
model.sol('sol1').feature('v5').set('initmethod', 'sol');
model.sol('sol1').feature('v5').set('initsol', 'sol1');
model.sol('sol1').feature('v5').set('notsolmethod', 'sol');
model.sol('sol1').feature('v5').set('notsol', 'sol1');
model.sol('sol1').feature('v5').set('control', 'time');

model.shape('shape1').feature('shfun1');

model.sol('sol1').feature.create('t1', 'Time');
model.sol('sol1').feature('t1').set('tlist', 'range(0,5.0e-8,3.0e-5)');
model.sol('sol1').feature('t1').set('plot', 'off');
model.sol('sol1').feature('t1').set('plotfreq', 'tout');
model.sol('sol1').feature('t1').set('probesel', 'all');
model.sol('sol1').feature('t1').set('probes', {});
model.sol('sol1').feature('t1').set('probefreq', 'tsteps');
model.sol('sol1').feature('t1').set('control', 'time');
model.sol('sol1').feature('t1').feature.create('se1', 'Segregated');
model.sol('sol1').feature('t1').feature('se1').feature.remove('ssDef');
model.sol('sol1').feature('t1').feature('se1').feature.create('ss1', 'SegregatedStep');
model.sol('sol1').feature('t1').feature('se1').feature('ss1').set('segvar', {'comp1_currents'});
model.sol('sol1').feature('t1').feature('se1').feature('ss1').set('linsolver', 'dDef');
model.sol('sol1').feature('t1').feature('se1').feature.create('ss2', 'SegregatedStep');
model.sol('sol1').feature('t1').feature('se1').feature('ss2').set('segvar', {'comp1_A' 'comp1_mf_psi'});
model.sol('sol1').feature('t1').feature.create('i1', 'Iterative');
model.sol('sol1').feature('t1').feature('i1').set('linsolver', 'gmres');
model.sol('sol1').feature('t1').feature('i1').set('prefuntype', 'right');
model.sol('sol1').feature('t1').feature('i1').feature.create('mg1', 'Multigrid');
model.sol('sol1').feature('t1').feature('i1').feature('mg1').feature('pr').feature.create('va1', 'Vanka');
model.sol('sol1').feature('t1').feature('i1').feature('mg1').feature('pr').feature('va1').set('vankavars', {'comp1_mf_psi'});
model.sol('sol1').feature('t1').feature('i1').feature('mg1').feature('po').feature.create('va1', 'Vanka');
model.sol('sol1').feature('t1').feature('i1').feature('mg1').feature('po').feature('va1').set('vankavars', {'comp1_mf_psi'});
model.sol('sol1').feature('t1').feature('se1').feature('ss2').set('linsolver', 'i1');
model.sol('sol1').feature('t1').feature.remove('fcDef');
model.sol('sol1').feature('v2').set('notsolnum', 'auto');
model.sol('sol1').feature('v2').set('notsolvertype', 'solnum');
model.sol('sol1').feature('v2').set('solnum', 'auto');
model.sol('sol1').feature('v2').set('solvertype', 'solnum');
model.sol('sol1').feature('v3').set('notsolnum', 'auto');
model.sol('sol1').feature('v3').set('notsolvertype', 'solnum');
model.sol('sol1').feature('v3').set('solnum', 'auto');
model.sol('sol1').feature('v3').set('solvertype', 'solnum');
model.sol('sol1').feature('v4').set('notsolnum', 'auto');
model.sol('sol1').feature('v4').set('notsolvertype', 'solnum');
model.sol('sol1').feature('v4').set('solnum', 'auto');
model.sol('sol1').feature('v4').set('solvertype', 'solnum');
model.sol('sol1').feature('v5').set('notsolnum', 'auto');
model.sol('sol1').feature('v5').set('notsolvertype', 'solnum');
model.sol('sol1').feature('v5').set('solnum', 'auto');
model.sol('sol1').feature('v5').set('solvertype', 'solnum');
model.sol('sol1').attach('std1');
model.sol('sol1').feature('t1').feature.create('fc1', 'FullyCoupled');
model.sol('sol1').feature('t1').feature('fc1').set('linsolver', 'dDef');
model.sol('sol1').feature('t1').feature('fc1').set('jtech', 'onevery');
model.sol('sol1').feature('t1').feature('fc1').set('maxiter', '25');

model.result.create('pg1', 'PlotGroup3D');
model.result('pg1').name('Magnetic Flux Density Norm (mf)');
model.result('pg1').set('oldanalysistype', 'noneavailable');
model.result('pg1').set('data', 'dset1');
model.result('pg1').feature.create('mslc1', 'Multislice');
model.result('pg1').feature('mslc1').set('oldanalysistype', 'noneavailable');
model.result('pg1').feature('mslc1').set('data', 'parent');

model.sol('sol1').runAll;

model.result('pg1').run;
model.result.numerical.create('gev1', 'EvalGlobal');
model.result.numerical('gev1').set('expr', 'mf.VCoil_1');
model.result.numerical('gev1').set('descr', 'Coil voltage');
model.result.table.create('tbl1', 'Table');
model.result.table('tbl1').comments('Global Evaluation 1 (mf.VCoil_1)');
model.result.numerical('gev1').set('table', 'tbl1');
model.result.numerical('gev1').setResult;
model.result.numerical('gev1').set('dataseries', 'maximum');
model.result.table.create('tbl2', 'Table');
model.result.table('tbl2').comments('Global Evaluation 1 (mf.VCoil_1)');
model.result.numerical('gev1').set('table', 'tbl2');
model.result.numerical('gev1').setResult;
model.result.table('tbl1').clearTableData;
model.result.table('tbl2').clearTableData;
model.result.table.remove('tbl1');
model.result.table.remove('tbl2');
model.result.numerical.remove('gev1');
model.result.export.create('data1', 'Data');
model.result.export('data1').set('solnum', {'114'});
model.result.export('data1').set('expr', {'mf.Bx'});
model.result.export('data1').set('descr', {'Magnetic flux density, x component'});
model.result.export('data1').set('unit', {'T'});
model.result.export('data1').set('expr', {'mf.Bx' 'mf.By'});
model.result.export('data1').set('descr', {'Magnetic flux density, x component' 'Magnetic flux density, y component'});
model.result.export('data1').set('expr', {'mf.Bx' 'mf.By' 'mf.Bz'});
model.result.export('data1').set('descr', {'Magnetic flux density, x component' 'Magnetic flux density, y component' 'Magnetic flux density, z component'});
model.result.export('data1').set('filename', 'C:\Users\Annisanurf\Documents\SIMULASI\Latihan\crop.txt');
model.result.export('data1').run;
model.result.export('data1').set('location', 'regulargrid');
model.result.export('data1').set('regulargridx3', '32');
model.result.export('data1').set('regulargridy3', '32');
model.result.export('data1').set('regulargridz3', '32');
model.result.export('data1').set('filename', 'C:\Users\Annisanurf\Documents\SIMULASI\Latihan\medan_port_1.txt');
model.result.export('data1').run;
model.result.numerical.create('gev1', 'EvalGlobal');
model.result.numerical('gev1').set('descr', ' Coil voltage');
model.result.numerical('gev1').set('expr', 'mf.VCoil_2');
model.result.numerical('gev1').set('dataseries', 'maximum');
model.result.table.create('tbl1', 'Table');
model.result.table('tbl1').comments('Global Evaluation 1 (mf.VCoil_2)');
model.result.numerical('gev1').set('table', 'tbl1');
model.result.numerical('gev1').setResult;
model.result.numerical('gev1').set('expr', 'mf.VCoil_3');
model.result.numerical('gev1').set('table', 'tbl1');
model.result.numerical('gev1').appendResult;
model.result.numerical('gev1').set('expr', 'mf.VCoil_4');
model.result.numerical('gev1').set('table', 'tbl1');
model.result.numerical('gev1').appendResult;
model.result.export.create('tbl1', 'Table');
model.result.export('tbl1').set('filename', 'C:\Users\Annisanurf\Documents\SIMULASI\Latihan\konduktivitas_udara_port_1.txt');
model.result.export('tbl1').run;

out = model;