{ 'convergenceCriteria': [ { 'percent': 2.5,
                             'type': 'meanConfHi',
                             'variable': 'totalMass'},
                           { 'percent': 5,
                             'type': 'meanConfHi',
                             'variable': 'fragmentCount'},
                           { 'absolute': 0.2,
                             'dataset': 'risk',
                             'percent': 10.0,
                             'type': 'meanConfHi',
                             'variable': 'mass'},
                           { 'absolute': 2000.0,
                             'dataset': 'noRisk',
                             'type': 'meanConfHi',
                             'variable': 'noRiskAlt'}],
  'description': '\n'
                 '    Demonstration of the PADRE component assessment mode.  '
                 'This analysis considers a \n'
                 '    component-centric MADRE 5 spoke reaction wheel model '
                 'with a steel flywheel.  Re-entry is \n'
                 '    predicted from a circular orbit from 130km altitude '
                 'using the MADRE version of SESAM.  This \n'
                 '    is enhanced over the current DRAMA 3.0.4 with the '
                 'inclusion of support for ring primitives, \n'
                 '    material catalycity and automatic scaling of voxel '
                 'size.  Orbital inclination is selected \n'
                 '    randomly from a uniform distribution across the full '
                 'range.  An undemisable parent vehicle \n'
                 '    with a ballistic coefficient randomly selected in the '
                 'range 50kg/m^2 to 200kg/m^2 is chosen \n'
                 '    and propagated to a release altitude of between 50km and '
                 '100km, at this point the child \n'
                 '    sub-assembly is released and its various components are '
                 'propagated to demise or impact.  \n'
                 '    Normal PADRE uncertainties on material properties, '
                 'heating, drag and atmospheric densities \n'
                 '    are also applied.  A standard Monte-Carlo analysis of '
                 '5000 simulations has been executed.\n'
                 '    ',
  'initialState': { 'eccentricity': 1e-06,
                    'emissivityAlLi': 0.16,
                    'emissivityAluminium': 0.4,
                    'emissivityBatteryLithium': 0.5,
                    'emissivityBatteryNiCd': 0.5,
                    'emissivityBeryllium': 0.8,
                    'emissivityBrass': 0.22,
                    'emissivityCarbonCarbon': 0.85,
                    'emissivityCfrp': 0.8,
                    'emissivityCopper': 0.6,
                    'emissivityCsI': 0.8,
                    'emissivityElectronics': 0.4,
                    'emissivityGermanium': 0.1,
                    'emissivityGfrp': 0.9,
                    'emissivityHc4Ply': 0.8,
                    'emissivityHc8Ply': 0.8,
                    'emissivityInconel': 0.9,
                    'emissivityInermet': 0.1544,
                    'emissivityInvar': 0.7,
                    'emissivityIron': 0.85,
                    'emissivityLead': 0.8,
                    'emissivityMagnefier': 0.75,
                    'emissivityMagnefierMelt': 0.5,
                    'emissivitySiC': 0.85,
                    'emissivitySilica': 0.8,
                    'emissivitySolarPanel': 0.4,
                    'emissivitySteel': 0.85,
                    'emissivityTantalum': 0.8,
                    'emissivityTitanium': 0.77,
                    'emissivityTungsten': 0.6,
                    'emissivityZerodur': 0.8,
                    'emissivityZnSe': 0.8,
                    'energyThreshold': 15,
                    'epoch': '2019-01-01 00:00:00',
                    'heatFluxContFree': 0.3333,
                    'latHeatAlLi': 361500.0,
                    'latHeatAluminium': 400000.0,
                    'latHeatBatteryLithium': 261000.0,
                    'latHeatBatteryNiCd': 174500.0,
                    'latHeatBeryllium': 1133000,
                    'latHeatBrass': 168000.0,
                    'latHeatCarbonCarbon': 365000,
                    'latHeatCopper': 243000,
                    'latHeatCsI': 1,
                    'latHeatElectronics': 49000,
                    'latHeatGermanium': 466500,
                    'latHeatGfrp': 800000,
                    'latHeatHc4Ply': 400000.0,
                    'latHeatHc8Ply': 400000.0,
                    'latHeatInconel': 309000,
                    'latHeatInermet': 189800.0,
                    'latHeatInvar': 274000,
                    'latHeatIron': 272000,
                    'latHeatLead': 1,
                    'latHeatMagnefier': 270000,
                    'latHeatSiC': 365000,
                    'latHeatSilica': 10000000,
                    'latHeatSolarPanel': 361459.0,
                    'latHeatSteel': 270300,
                    'latHeatTantalum': 1,
                    'latHeatTitanium': 337700,
                    'latHeatTungsten': 192000.0,
                    'latHeatZerodur': 4000000,
                    'latHeatZnSe': 10,
                    'meltTempAlLi': 906.15,
                    'meltTempAluminium': 850.0,
                    'meltTempBatteryLithium': 630.0,
                    'meltTempBatteryNiCd': 1160.0,
                    'meltTempBeryllium': 1550,
                    'meltTempBrass': 1318.0,
                    'meltTempCarbonCarbon': 3600,
                    'meltTempCopper': 1356,
                    'meltTempCsI': 905,
                    'meltTempElectronics': 646,
                    'meltTempGermanium': 1211,
                    'meltTempGfrp': 1473,
                    'meltTempHc4Ply': 890.0,
                    'meltTempHc8Ply': 930.0,
                    'meltTempInconel': 1630,
                    'meltTempInermet': 2708.0,
                    'meltTempInvar': 1700,
                    'meltTempIron': 1808,
                    'meltTempLead': 600,
                    'meltTempMagnefier': 1718,
                    'meltTempSiC': 3100,
                    'meltTempSilica': 2600,
                    'meltTempSolarPanel': 906.15,
                    'meltTempSteel': 1665.0,
                    'meltTempTantalum': 3258,
                    'meltTempTitanium': 1905,
                    'meltTempTungsten': 3673.0,
                    'meltTempZerodur': 1558,
                    'meltTempZnSe': 920,
                    'raan': 0,
                    'semiMajorAxis': 6500000,
                    'simMode': 2,
                    'trueAnomaly': 0,
                    'type': 'kepler'},
  'maxSimulationCount': 5000,
  'minSimulationCount': 5000,
  'outputDirectory': 'Output/ReactionWheelSteel',
  'propagator': {'threadCount': 4, 'type': 'sesam'},
  'reentryType': 'component',
  'statistics': {'algorithm': 'monteCarlo', 'batchSize': 500},
  'template': 'ReactionWheelSteel',
  'title': 'PADRE Steel Reaction Wheel Component Mode Test Case'}