bluemira.codes.process.model_mapping

PROCESS model mappings

Classes

`classproperty`	Hacking for properties to work with Enums
`ModelSelection`	Mixin dataclass for a Model selection in PROCESSModel
`PROCESSModel`	Baseclass for PROCESS models
`PROCESSOptimisationAlgorithm`	Switch for the optimisation algorithm to use in PROCESS
`PlasmaGeometryModel`	Switch for plasma geometry
`PlasmaNullConfigurationModel`	Switch for single-null / double-null
`PlasmaPedestalModel`	Switch for plasma profile model
`BetaNormMaxModel`	Switch for determining how the beta g coefficient beta_norm_max is calculated.
`PlasmaProfileModel`	Switch for current profile consistency
`AlphaJModel`	Switch for current profile index
`BetaLimitModel`	Switch for the plasma beta limit model
`AlphaPressureModel`	Switch for the pressure contribution from fast alphas
`DensityLimitModel`	Switch for the density limit model
`PlasmaCurrentScalingLaw`	Switch for plasma current scaling law
`ConfinementTimeScalingLaw`	Switch for the energy confinement time scaling law
`BootstrapCurrentScalingLaw`	Switch for the model to calculate bootstrap fraction
`DiamagneticCurrentScalingLaw`	Switch for the model of diamagnetic current calculation
`PfirschSchluterCurrentScalingLaw`	Switch for the model of Pfirsch-Schlüter current calculation
`LHThreshholdScalingLaw`	Switch for the model to calculate the L-H power threshhold
`RadiationLossModel`	Switch for radiation loss term usage in power balance
`PlasmaWallGapModel`	Switch to select plasma-wall gap model
`SphericalTokamakModel`	Switch to enable spherical tokamak approximations
`SphericalTokamakPFModel`	Switch to enable spherical tokamak PF approximations
`OperationModel`	Switch to set the operation mode
`PowerFlowModel`	Switch to control power flow model
`ThermalStorageModel`	Switch to et the power cycle thermal storage model
`BlanketModel`	Switch to select the blanket model
`StelleratorBlanketModel`	Switch to select the blanket model for Stellerator
`InboardBlanketSwitch`	Switch to determin whether or not there is an inboard blanket
`InVesselGeometryModel`	Switch to control the geometry of the FW, blanket, shield, and VV shape
`TFTurnsInteger`	Switch for TF coil integer/non-integer turns
`TFCSTopologyModel`	Switch to select the TF-CS topology
`TFCoilConductorTechnology`	Switch for TF coil conductor model:
`TFSuperconductorModel`	Switch for the TF superconductor model
`TFCasingGeometryModel`	Switch for the TF casing geometry model
`TFWindingPackGeometryModel`	Switch for the TF winding pack geometry model
`TFWindingPackTurnModel`	Switch for the TF winding pack turn model
`TFCoilShapeModel`	Switch for the TF coil shape model
`ResistiveCentrepostModel`	Swtich for the resistive centrepost model
`TFCoilJointsModel`	Switch for the TF coil joints
`TFStressModel`	Switch for the TF inboard midplane stress model
`TFTrescaStressModel`	Switch for the TF coil conduit Tresca stress criterion
`TFCoilSupportModel`	Switch for the TF inboard coil support model
`PFConductorModel`	Switch for the PF conductor technology model
`PFSuperconductorModel`	Switch for the PF superconductor model
`PFCurrentControlModel`	Switch to control the currents in the PF coils
`PFCoilPlacmentModel`	Switch for the placement of Location 3 (outboard) PF coils
`SolenoidSwitchModel`	Switch to control whether or not a central solenoid should be
`CSSuperconductorModel`	Switch for the CS superconductor model
`CSPrecompressionModel`	Switch to control the existence of pre-compression tie plates in the CS
`CSStressModel`	Switch for the calculation of the CS stress
`DivertorHeatFluxModel`	Switch for the divertor heat flux model
`DivertorThermalHeatUse`	Switch to control if the divertor thermal power is used in the
`ShieldThermalHeatUse`	Switch to control if shield (inside VV) is used in the power cycle
`TFNuclearHeatingModel`	Switch to control nuclear heating in TF model
`PrimaryPumpingModel`	Switch for the calculation method of the pumping power
`SecondaryCycleModel`	Switch for the calculation of thermal to electric conversion efficiency
`CurrentDriveEfficiencyModel`	Switch for current drive efficiency model:
`ECRHWaveModel`	Switch for ECRH wave mode
`PlasmaIgnitionModel`	Switch to control whether or not the plasma is ignited
`VacuumPumpingModel`	Switch to control the vacuum pumping technology model
`VacuumPumpingDwellModel`	Switch to control when vacuum pumping occurs
`AvailabilityModel`	Switch to control the availability model
`SafetyAssuranceLevel`	Switch to control the level of safety assurance
`CostModel`	Switch to control the cost model used
`CapCostFracTetraModel`	Switch for Tetra cost model.
`BuildingSizeModel`	Switch for Building size estimation model
`OutputCostsSwitch`	Switch to control whether or not cost information is output
`VacuumPumpSwitch`	Switch for whether the FW and BB are on the same pump system
`FWCoolantSwitch`	Switch for first wall coolant (can be different from blanket coolant)
`ModuleSegmentSwitch`	Switch for Multi Module Segment (MMS) or Single Modle Segment (SMS)
`LiquidMetalBreederMaterialSwitch`	Switch for Liquid Metal Breeder Material
`BBCoolantSwitch`	Switch to specify whether breeding blanket is single-cooled or dual-coolant
`FlowChannelInsertSwitch`	Switch for Flow Channel Insert (FCI) type if liquid metal breeder blanket.

Module Contents

class bluemira.codes.process.model_mapping.classproperty(func)

Hacking for properties to work with Enums

func

__get__(obj, owner): Apply function to owner

class bluemira.codes.process.model_mapping.ModelSelection

Mixin dataclass for a Model selection in PROCESSModel

Parameters:

_value_ – Integer value of the model selection
requires – List of required inputs for the model selection
description – Short description of the model selection

_value_: int

requires_values: tuple[str] = ()

description: str = ''

class bluemira.codes.process.model_mapping.PROCESSModel(*args, **kwds)

Bases: ModelSelection, bluemira.codes.utilities.Model

Baseclass for PROCESS models

abstract switch_name() → str

PROCESS switch name

Return type:: str

class bluemira.codes.process.model_mapping.PROCESSOptimisationAlgorithm(*args, **kwds)

Bases: PROCESSModel

Switch for the optimisation algorithm to use in PROCESS

# TODO: This switch will be used in future to support alternative optimisation algorithms.

switch_name() → str

PROCESS switch name

Return type:: str

NO_OPTIMISATION = (0, (), 'Do not use optimisation')

VMCON = (1, (), 'The traditional VMCON optimisation algorithm')

class bluemira.codes.process.model_mapping.PlasmaGeometryModel(*args, **kwds)

Bases: PROCESSModel

Switch for plasma geometry

switch_name() → str

PROCESS switch name

Return type:: str

HENDER_K_D_100 = (0, ('kappa', 'triang'))

GALAMBOS_K_D_95 = (1, ('kappa95', 'triang95'))

ZOHM_ITER = (2, ('triang', 'fkzohm'))

ZOHM_ITER_D_95 = (3, ('triang95', 'fkzohm'))

HENDER_K_D_95 = (4, 'kappa95, triang95')

MAST_95 = (5, 'kappa95, triang95')

MAST_100 = (6, 'kappa, triang')

FIESTA_95 = (7, 'kappa95, triang95')

FIESTA_100 = (8, 'kappa, triang')

A_LI3 = (9, ('triang',))

CREATE_A_M_S = (10, ('aspect', 'm_s_limit', 'triang'), 'A fit to CREATE data for conventional A tokamaks')

MENARD = (11, ('triang', 'aspect'))

class bluemira.codes.process.model_mapping.PlasmaNullConfigurationModel(*args, **kwds)

Bases: PROCESSModel

Switch for single-null / double-null

switch_name() → str

PROCESS switch name

Return type:: str

DOUBLE_NULL = (0, ('f_p_div_lower',))

SINGLE_NULL = 1

class bluemira.codes.process.model_mapping.PlasmaPedestalModel(*args, **kwds)

Bases: PROCESSModel

Switch for plasma profile model

switch_name() → str

PROCESS switch name

Return type:: str

NO_PEDESTAL = (0, ('temp_plasma_electron_vol_avg_kev',))

PEDESTAL_GW = (1, ('temp_plasma_electron_vol_avg_kev', 'nd_plasma_pedestal_electron',...

class bluemira.codes.process.model_mapping.BetaNormMaxModel(*args, **kwds)

Bases: PROCESSModel

Switch for determining how the beta g coefficient beta_norm_max is calculated.

switch_name() → str

PROCESS switch name

Return type:: str

INPUT = (0, ('beta_norm_max',))

WESSON = (1, ('q0', 'q95', 'i_alphaj', 'i_ind_plasma_internal_norm'))

ORIG_SCALING = 2

MENARD = (3, 'i_ind_plasma_internal_norm')

THOLERUS = 4

STAMBAUGH = 5

class bluemira.codes.process.model_mapping.PlasmaProfileModel(*args, **kwds)

Bases: PROCESSModel

Switch for current profile consistency

switch_name() → str

PROCESS switch name

Return type:: str

INPUT = (0, ('ind_plasma_internal_norm',))

WESSON = (1, ('q95', 'q0'))

MENARD = (2, ('q95', 'q0', 'ind_plasma_internal_norm'))

class bluemira.codes.process.model_mapping.AlphaJModel(*args, **kwds)

Bases: PROCESSModel

Switch for current profile index

switch_name() → str

PROCESS switch name

Return type:: str

INPUT = (0, ('alphaj', 'ind_plasma_internal_norm'))

WESSON = (1, ('q95', 'q0'))

class bluemira.codes.process.model_mapping.BetaLimitModel(*args, **kwds)

Bases: PROCESSModel

Switch for the plasma beta limit model

switch_name() → str

PROCESS switch name

Return type:: str

TOTAL = 0

THERMAL = 1

THERMAL_NBI = 2

TOTAL_TF = 3

class bluemira.codes.process.model_mapping.AlphaPressureModel(*args, **kwds)

Bases: PROCESSModel

Switch for the pressure contribution from fast alphas

switch_name() → str

PROCESS switch name

Return type:: str

HENDER = 0

WARD = 1

class bluemira.codes.process.model_mapping.DensityLimitModel(*args, **kwds)

Bases: PROCESSModel

Switch for the density limit model

switch_name() → str

PROCESS switch name

Return type:: str

ASDEX = 1

BORRASS_ITER_I = 2

BORRASS_ITER_II = 3

JET_RADIATION = 4

JET_SIMPLE = 5

HUGILL_MURAKAMI = 6

GREENWALD = 7

class bluemira.codes.process.model_mapping.PlasmaCurrentScalingLaw(*args, **kwds)

Bases: PROCESSModel

Switch for plasma current scaling law

switch_name() → str

PROCESS switch name

Return type:: str

PENG = 1

PENG_DN = 2

ITER_SIMPLE = 3

ITER_REVISED = 4

TODD_I = 5

TODD_II = 6

CONNOR_HASTIE = 7

SAUTER = 8

FIESTA = 9

class bluemira.codes.process.model_mapping.ConfinementTimeScalingLaw(*args, **kwds)

Bases: PROCESSModel

Switch for the energy confinement time scaling law

switch_name() → str

PROCESS switch name

Return type:: str

NEO_ALCATOR_OHMIC = 1

MIRNOV_H_MODE = 2

MEREZHKIN_MUHKOVATOV_L_MODE = 3

SHIMOMURA_H_MODE = 4

KAYE_GOLDSTON_L_MODE = 5

ITER_89_P_L_MODE = 6

ITER_89_O_L_MODE = 7

REBUT_LALLIA_L_MODE = 8

GOLDSTON_L_MODE = 9

T10_L_MODE = 10

JAERI_88_L_MODE = 11

KAYE_BIG_COMPLEX_L_MODE = 12

ITER_H90_P_H_MODE = 13

ITER_MIX = 14

RIEDEL_L_MODE = 15

CHRISTIANSEN_L_MODE = 16

LACKNER_GOTTARDI_L_MODE = 17

NEO_KAYE_L_MODE = 18

RIEDEL_H_MODE = 19

ITER_H90_P_H_MODE_AMENDED = 20

LHD_STELLARATOR = 21

GRYO_RED_BOHM_STELLARATOR = 22

LACKNER_GOTTARDI_STELLARATOR = 23

ITER_93H_H_MODE = 24

TITAN_RFP = 25

ITER_H97_P_NO_ELM_H_MODE = 26

ITER_H97_P_ELMY_H_MODE = 27

ITER_96P_L_MODE = 28

VALOVIC_ELMY_H_MODE = 29

KAYE_PPPL98_L_MODE = 30

ITERH_PB98P_H_MODE = 31

IPB98_Y_H_MODE = 32

IPB98_Y1_H_MODE = 33

IPB98_Y2_H_MODE = 34

IPB98_Y3_H_MODE = 35

IPB98_Y4_H_MODE = 36

ISS95_STELLARATOR = 37

ISS04_STELLARATOR = 38

DS03_H_MODE = 39

MURARI_H_MODE = 40

PETTY_H_MODE = 41

LANG_H_MODE = 42

HUBBARD_NOM_I_MODE = 43

HUBBARD_LOW_I_MODE = 44

HUBBARD_HI_I_MODE = 45

NSTX_H_MODE = 46

NSTX_PETTY_H_MODE = 47

NSTX_GB_H_MODE = 48

INPUT = (49, ('tauee_in',))

class bluemira.codes.process.model_mapping.BootstrapCurrentScalingLaw(*args, **kwds)

Bases: PROCESSModel

Switch for the model to calculate bootstrap fraction

switch_name() → str

PROCESS switch name

Return type:: str

FIXED = 0

ITER = (1, ('cboot',))

GENERAL = 2

NUMERICAL = 3

SAUTER = 4

class bluemira.codes.process.model_mapping.DiamagneticCurrentScalingLaw(*args, **kwds)

Bases: PROCESSModel

Switch for the model of diamagnetic current calculation

switch_name() → str

PROCESS switch name

Return type:: str

OFF = 0

ST_FIT = 1

SCENE_FIT = (2, ('q', 'q0'))

class bluemira.codes.process.model_mapping.PfirschSchluterCurrentScalingLaw(*args, **kwds)

Bases: PROCESSModel

Switch for the model of Pfirsch-Schlüter current calculation

switch_name() → str

PROCESS switch name

Return type:: str

OFF = 0

SCENE_FIT = 1

class bluemira.codes.process.model_mapping.LHThreshholdScalingLaw(*args, **kwds)

Bases: PROCESSModel

Switch for the model to calculate the L-H power threshhold

switch_name() → str

PROCESS switch name

Return type:: str

ITER_1996_NOM = 1

ITER_1996_LOW = 2

ITER_1996_HI = 3

ITER_1997 = 4

ITER_1997_K = 5

MARTIN_NOM = 6

MARTIN_HI = 7

MARTIN_LOW = 8

SNIPES_NOM = 9

SNIPES_HI = 10

SNIPES_LOW = 11

SNIPES_CLOSED_DIVERTOR_NOM = 12

SNIPES_CLOSED_DIVERTOR_HI = 13

SNIPES_CLOSED_DIVERTOR_LOW = 14

HUBBARD_LI_NOM = 15

HUBBARD_LI_HI = 16

HUBBARD_LI_LOW = 17

HUBBARD_2017_LI = 18

MARTIN_ACORRECT_NOM = 19

MARTIN_ACORRECT_HI = 20

MARTIN_ACORRECT_LOW = 21

class bluemira.codes.process.model_mapping.RadiationLossModel(*args, **kwds)

Bases: PROCESSModel

Switch for radiation loss term usage in power balance

switch_name() → str

PROCESS switch name

Return type:: str

SCALING_PEDSETAL = 0

SCALING_CORE = 1

SCALING_ONLY = 2

class bluemira.codes.process.model_mapping.PlasmaWallGapModel(*args, **kwds)

Bases: PROCESSModel

Switch to select plasma-wall gap model

switch_name() → str

PROCESS switch name

Return type:: str

TEN_PERCENT = (0, (), 'SOL thickness calculated as 10 percent of minor radius')

INPUT = (1, ('dr_fw_plasma_gap_inboard', 'dr_fw_plasma_gap_outboard'), 'Fixed thickness SOL values')

class bluemira.codes.process.model_mapping.SphericalTokamakModel(*args, **kwds)

Bases: PROCESSModel

Switch to enable spherical tokamak approximations

switch_name() → str

PROCESS switch name

Return type:: str

OFF = 0

ON = 1

class bluemira.codes.process.model_mapping.SphericalTokamakPFModel(*args, **kwds)

Bases: PROCESSModel

Switch to enable spherical tokamak PF approximations

switch_name() → str

PROCESS switch name

Return type:: str

PENG_STRICKLER = (0, (), 'Peng and Strickler (1986)')

CONVENTIONAL = 1

class bluemira.codes.process.model_mapping.OperationModel(*args, **kwds)

Bases: PROCESSModel

Switch to set the operation mode

switch_name() → str

PROCESS switch name

Return type:: str

STEADY_STATE = 0

PULSED = 1

class bluemira.codes.process.model_mapping.PowerFlowModel(*args, **kwds)

Bases: PROCESSModel

Switch to control power flow model

switch_name() → str

PROCESS switch name

Return type:: str

SIMPLE = 0

STELLARATOR = 1

class bluemira.codes.process.model_mapping.ThermalStorageModel(*args, **kwds)

Bases: PROCESSModel

Switch to et the power cycle thermal storage model

switch_name() → str

PROCESS switch name

Return type:: str

INHERENT_STEAM = 1

BOILER = 2

STEEL = (3, ('dtstor',))

class bluemira.codes.process.model_mapping.BlanketModel(*args, **kwds)

Bases: PROCESSModel

Switch to select the blanket model

switch_name() → str

PROCESS switch name

Return type:: str

CCFE_HCPB = (1, ('dr_blkt_inboard', 'dr_blkt_outboard', 'tbrmin'), 'CCFE HCPB model')

DCLL = (5, ('blbuith', 'blbuoth'), 'no neutronics model included')

class bluemira.codes.process.model_mapping.StelleratorBlanketModel(*args, **kwds)

Bases: PROCESSModel

Switch to select the blanket model for Stellerator

switch_name() → str

PROCESS switch name

Return type:: str

SIMPLE = (0, ('i_blkt_coolant_type',))

KIT_HCPB = (1, ('i_blkt_coolant_type',))

class bluemira.codes.process.model_mapping.InboardBlanketSwitch(*args, **kwds)

Bases: PROCESSModel

Switch to determin whether or not there is an inboard blanket

switch_name() → str

PROCESS switch name

Return type:: str

ABSENT = 0

PRESENT = 1

class bluemira.codes.process.model_mapping.InVesselGeometryModel(*args, **kwds)

Bases: PROCESSModel

Switch to control the geometry of the FW, blanket, shield, and VV shape

switch_name() → str

PROCESS switch name

Return type:: str

CYL_ELLIPSE = 1

TWO_ELLIPSE = 2

class bluemira.codes.process.model_mapping.TFTurnsInteger(*args, **kwds)

Bases: PROCESSModel

Switch for TF coil integer/non-integer turns

switch_name() → str

PROCESS switch name

Return type:: str

NON_INTEGER = 0

INTEGER = 1

class bluemira.codes.process.model_mapping.TFCSTopologyModel(*args, **kwds)

Bases: PROCESSModel

Switch to select the TF-CS topology

switch_name() → str

PROCESS switch name

Return type:: str

ITER = 0

INSANITY = 1

class bluemira.codes.process.model_mapping.TFCoilConductorTechnology(*args, **kwds)

Bases: PROCESSModel

Switch for TF coil conductor model:

switch_name() → str

PROCESS switch name

Return type:: str

COPPER = (0, ('f_dr_tf_outboard_inboard',))

SC = 1

CRYO_AL = 2

class bluemira.codes.process.model_mapping.TFSuperconductorModel(*args, **kwds)

Bases: PROCESSModel

Switch for the TF superconductor model

switch_name() → str

PROCESS switch name

Return type:: str

NB3SN_ITER_STD = 1

BI_2212 = 2

NBTI = 3

NB3SN_ITER_INPUT = 4

NB3SN_WST = 5

REBCO_CROCO = 6

NBTI_DGL = 7

REBCO_DGL = 8

REBCO_ZHAI = 9

class bluemira.codes.process.model_mapping.TFCasingGeometryModel(*args, **kwds)

Bases: PROCESSModel

Switch for the TF casing geometry model

switch_name() → str

PROCESS switch name

Return type:: str

CURVED = 0

FLAT = 1

class bluemira.codes.process.model_mapping.TFWindingPackGeometryModel(*args, **kwds)

Bases: PROCESSModel

Switch for the TF winding pack geometry model

switch_name() → str

PROCESS switch name

Return type:: str

RECTANGULAR = 0

DOUBLE_RECTANGULAR = 1

TRAPEZOIDAL = 2

class bluemira.codes.process.model_mapping.TFWindingPackTurnModel(*args, **kwds)

Bases: PROCESSModel

Switch for the TF winding pack turn model

switch_name() → str

PROCESS switch name

Return type:: str

CURRENT_PER_TURN = (0, ('c_tf_turn',))

class bluemira.codes.process.model_mapping.TFCoilShapeModel(*args, **kwds)

Bases: PROCESSModel

Switch for the TF coil shape model

switch_name() → str

PROCESS switch name

Return type:: str

PRINCETON = 1

PICTURE_FRAME = 2

class bluemira.codes.process.model_mapping.ResistiveCentrepostModel(*args, **kwds)

Bases: PROCESSModel

Swtich for the resistive centrepost model

switch_name() → str

PROCESS switch name

Return type:: str

CALCULATED = 0

INPUT = 1

MID_TOP_RATIO = 2

class bluemira.codes.process.model_mapping.TFCoilJointsModel(*args, **kwds)

Bases: PROCESSModel

Switch for the TF coil joints

switch_name() → str

PROCESS switch name

Return type:: str

SC_CLAMP_RES_SLIDE

NO_JOINTS = 0

SLIDING_JOINTS = (1, ('tho_tf_joints', 'n_tf_joints_contact', 'n_tf_joints', 'th_joint_contact'))

class bluemira.codes.process.model_mapping.TFStressModel(*args, **kwds)

Bases: PROCESSModel

Switch for the TF inboard midplane stress model

switch_name() → str

PROCESS switch name

Return type:: str

GEN_PLANE_STRAIN = 0

PLANE_STRESS = 1

GEN_PLANE_STRAIN_NEW = 2

class bluemira.codes.process.model_mapping.TFTrescaStressModel(*args, **kwds)

Bases: PROCESSModel

Switch for the TF coil conduit Tresca stress criterion

switch_name() → str

PROCESS switch name

Return type:: str

OFF = 0

ON = (1, (), 'Tresca with CEA adjustment factors (radial+2%, vertical+60%)')

class bluemira.codes.process.model_mapping.TFCoilSupportModel(*args, **kwds)

Bases: PROCESSModel

Switch for the TF inboard coil support model

switch_name() → str

PROCESS switch name

Return type:: str

NO_SUPPORT = 0

BUCKED = 1

BUCKED_WEDGED = 2

class bluemira.codes.process.model_mapping.PFConductorModel(*args, **kwds)

Bases: PROCESSModel

Switch for the PF conductor technology model

switch_name() → str

PROCESS switch name

Return type:: str

SUPERCONDUCTING = 0

RESISTIVE = 1

class bluemira.codes.process.model_mapping.PFSuperconductorModel(*args, **kwds)

Bases: PROCESSModel

Switch for the PF superconductor model

switch_name() → str

PROCESS switch name

Return type:: str

NB3SN_ITER_STD = 1

BI_2212 = (2, ('fhts',))

NBTI = 3

NB3SN_ITER_INPUT = 4

NB3SN_WST = 5

REBCO_CROCO = 6

NBTI_DGL = 7

REBCO_DGL = 8

REBCO_ZHAI = 9

class bluemira.codes.process.model_mapping.PFCurrentControlModel(*args, **kwds)

Bases: PROCESSModel

Switch to control the currents in the PF coils

switch_name() → str

PROCESS switch name

Return type:: str

INPUT = (0, ('c_pf_cs_coil_pulse_start_ma', 'c_pf_cs_coil_flat_top_ma', 'c_pf_cs_coil_pulse_end_ma'))

SVD = 1

class bluemira.codes.process.model_mapping.PFCoilPlacmentModel(*args, **kwds)

Bases: PROCESSModel

Switch for the placement of Location 3 (outboard) PF coils when the TF coils are superconducting (TFCoilConductorTechnology.SC)

switch_name() → str

PROCESS switch name

Return type:: str

DEFAULT = 0

OUTBOARD_EQUAL = (1, ('i_tf_sup',))

class bluemira.codes.process.model_mapping.SolenoidSwitchModel(*args, **kwds)

Bases: PROCESSModel

Switch to control whether or not a central solenoid should be used.

switch_name() → str

PROCESS switch name

Return type:: str

NO_SOLENOID = 0

SOLENOID = 1

class bluemira.codes.process.model_mapping.CSSuperconductorModel(*args, **kwds)

Bases: PROCESSModel

Switch for the CS superconductor model

switch_name() → str

PROCESS switch name

Return type:: str

NB3SN_ITER_STD = 1

BI_2212 = 2

NBTI = 3

NB3SN_ITER_INPUT = 4

NB3SN_WST = 5

REBCO_CROCO = 6

NBTI_DGL = 7

REBCO_DGL = 8

REBCO_ZHAI = 9

class bluemira.codes.process.model_mapping.CSPrecompressionModel(*args, **kwds)

Bases: PROCESSModel

Switch to control the existence of pre-compression tie plates in the CS

switch_name() → str

PROCESS switch name

Return type:: str

ABSENT = 0

PRESENT = 1

class bluemira.codes.process.model_mapping.CSStressModel(*args, **kwds)

Bases: PROCESSModel

Switch for the calculation of the CS stress

# TODO: Listed as an output?!

switch_name() → str

PROCESS switch name

Return type:: str

HOOP_ONLY = 0

HOOP_AXIAL = 1

class bluemira.codes.process.model_mapping.DivertorHeatFluxModel(*args, **kwds)

Bases: PROCESSModel

Switch for the divertor heat flux model

switch_name() → str

PROCESS switch name

Return type:: str

INPUT = 0

CHAMBER = 1

WADE = 2

class bluemira.codes.process.model_mapping.DivertorThermalHeatUse(*args, **kwds)

Bases: PROCESSModel

Switch to control if the divertor thermal power is used in the power cycle

switch_name() → str

PROCESS switch name

Return type:: str

LOW_GRADE_HEAT = 0

HIGH_GRADE_HEAT = 1

class bluemira.codes.process.model_mapping.ShieldThermalHeatUse(*args, **kwds)

Bases: PROCESSModel

Switch to control if shield (inside VV) is used in the power cycle

switch_name() → str

PROCESS switch name

Return type:: str

NOT_USED = 0

LOW_GRADE_HEAT = 1

class bluemira.codes.process.model_mapping.TFNuclearHeatingModel(*args, **kwds)

Bases: PROCESSModel

Switch to control nuclear heating in TF model

switch_name() → str

PROCESS switch name

Return type:: str

FRANCES_FOX = 0

INPUT = (1, ('qnuc',))

class bluemira.codes.process.model_mapping.PrimaryPumpingModel(*args, **kwds)

Bases: PROCESSModel

Switch for the calculation method of the pumping power required for the primary coolant

switch_name() → str

PROCESS switch name

Return type:: str

INPUT = 0

FRACTION = 1

PRESSURE_DROP = 2

PRESSURE_DROP_INPUT = 3

class bluemira.codes.process.model_mapping.SecondaryCycleModel(*args, **kwds)

Bases: PROCESSModel

Switch for the calculation of thermal to electric conversion efficiency

switch_name() → str

PROCESS switch name

Return type:: str

FIXED = 0

FIXED_W_DIVERTOR = 1

INPUT = 2

RANKINE = 3

BRAYTON = 4

class bluemira.codes.process.model_mapping.CurrentDriveEfficiencyModel(*args, **kwds)

Bases: PROCESSModel

Switch for current drive efficiency model:

1 - Fenstermacher Lower Hybrid 2 - Ion Cyclotron current drive 3 - Fenstermacher ECH 4 - Ehst Lower Hybrid 5 - ITER Neutral Beam 6 - new Culham Lower Hybrid model 7 - new Culham ECCD model 8 - new Culham Neutral Beam model 10 - ECRH user input gamma 11 - ECRH “HARE” model (E. Poli, Physics of Plasmas 2019) 12 - EBW user scaling input. Scaling (S. Freethy) 13 - ECRH O-mode cutoff with Zeff and Te (Physical review letters. 90. 075003)

switch_name() → str

PROCESS switch name

Return type:: str

FENSTER_LH = 1

ICYCCD = 2

FENSTER_ECH = 3

EHST_LH = 4

ITER_NB = 5

CUL_LH = 6

CUL_ECCD = 7

CUL_NB = 8

ECRH_UI_GAM = 10

ECRH_HARE = 11

EBW_UI = 12

ECRH_O = 13

class bluemira.codes.process.model_mapping.ECRHWaveModel(*args, **kwds)

Bases: PROCESSModel

Switch for ECRH wave mode

switch_name() → str

PROCESS switch name

Return type:: str

O_MODE = 0

X_MODE = 1

class bluemira.codes.process.model_mapping.PlasmaIgnitionModel(*args, **kwds)

Bases: PROCESSModel

Switch to control whether or not the plasma is ignited

switch_name() → str

PROCESS switch name

Return type:: str

NOT_IGNITED = 0

IGNITED = 1

class bluemira.codes.process.model_mapping.VacuumPumpingModel(*args, **kwds)

Bases: PROCESSModel

Switch to control the vacuum pumping technology model

switch_name() → str

PROCESS switch name

Return type:: str

TURBO_PUMP = 0

CRYO_PUMP = 1

class bluemira.codes.process.model_mapping.VacuumPumpingDwellModel(*args, **kwds)

Bases: PROCESSModel

Switch to control when vacuum pumping occurs

switch_name() → str

PROCESS switch name

Return type:: str

T_DWELL = 0

T_RAMP = 1

T_DWELL_RAMP = 2

class bluemira.codes.process.model_mapping.AvailabilityModel(*args, **kwds)

Bases: PROCESSModel

Switch to control the availability model

switch_name() → str

PROCESS switch name

Return type:: str

INPUT = 0

TAYLOR_WARD = 1

MORRIS = 2

class bluemira.codes.process.model_mapping.SafetyAssuranceLevel(*args, **kwds)

Bases: PROCESSModel

Switch to control the level of safety assurance

switch_name() → str

PROCESS switch name

Return type:: str

TRULY_SAFE = 1

VERY_SAFE = 2

SOMEWHAT_SAFE = 3

FISSION = 4

class bluemira.codes.process.model_mapping.CostModel(*args, **kwds)

Bases: PROCESSModel

Switch to control the cost model used

switch_name() → str

PROCESS switch name

Return type:: str

TETRA_1990 = 0

KOVARI_2015 = 1

CUSTOM = 2

class bluemira.codes.process.model_mapping.CapCostFracTetraModel(*args, **kwds)

Bases: PROCESSModel

Switch for Tetra cost model.

Decides whether blanket, divertor and first wall are capital or fuel costs

switch_name() → str

PROCESS switch name

Return type:: str

ALL_CAPCOST = 0

ALL_FUELCOST = (1, ('fcdfuel',))

INIT_CAPCOST = (2, ('fcdfuel',))

class bluemira.codes.process.model_mapping.BuildingSizeModel(*args, **kwds)

Bases: PROCESSModel

Switch for Building size estimation model

switch_name() → str

PROCESS switch name

Return type:: str

DEFAULT = 0

NEW = 1

class bluemira.codes.process.model_mapping.OutputCostsSwitch(*args, **kwds)

Bases: PROCESSModel

Switch to control whether or not cost information is output

switch_name() → str

PROCESS switch name

Return type:: str

NO = (0, (), 'Do not print cost information to output')

YES = (1, (), 'Print cost information to output')

class bluemira.codes.process.model_mapping.VacuumPumpSwitch(*args, **kwds)

Bases: PROCESSModel

Switch for whether the FW and BB are on the same pump system i.e. do they have the same primary coolant or not

switch_name() → str

PROCESS switch name

Return type:: str

SAME = (0, (), 'FW and BB have the same primary coolant')

DIFFERENT = (1, (), 'FW and BB have the different primary coolant and are on different pump systems')

class bluemira.codes.process.model_mapping.FWCoolantSwitch(*args, **kwds)

Bases: PROCESSModel

Switch for first wall coolant (can be different from blanket coolant)

switch_name() → str

PROCESS switch name

Return type:: str

HELIUM = 'helium'

WATER = 'water'

class bluemira.codes.process.model_mapping.ModuleSegmentSwitch(*args, **kwds)

Bases: PROCESSModel

Switch for Multi Module Segment (MMS) or Single Modle Segment (SMS)

switch_name() → str

PROCESS switch name

Return type:: str

MMS = (0, (), 'Multi Module Segment (MMS)')

SMS = (1, (), 'Single Modle Segment (SMS)')

class bluemira.codes.process.model_mapping.LiquidMetalBreederMaterialSwitch(*args, **kwds)

Bases: PROCESSModel

Switch for Liquid Metal Breeder Material

switch_name() → str

PROCESS switch name

Return type:: str

PBLI = (0, (), 'PbLi')

LI = (1, (), 'Li')

class bluemira.codes.process.model_mapping.BBCoolantSwitch(*args, **kwds)

Bases: PROCESSModel

Switch to specify whether breeding blanket is single-cooled or dual-coolant

switch_name() → str

PROCESS switch name

Return type:: str

SINGLE_FOR_SB = (0, (), 'Single coolant, Solid Breeder')

SINGLE_FOR_LB = (1, ('n_liq_recirc',), 'Single coolant, Liquid metal breeder')

DUAL = (2, (), 'Dual coolant')

class bluemira.codes.process.model_mapping.FlowChannelInsertSwitch(*args, **kwds)

Bases: PROCESSModel

Switch for Flow Channel Insert (FCI) type if liquid metal breeder blanket.

switch_name() → str

PROCESS switch name

Return type:: str

THIN = (0, ('bz_channel_conduct_liq',), 'Thin conducting walls')

INS_PERFECT = (1, (), 'Insulating Material, perfect electrical insulator')

INS_INPUT = (2, ('bz_channel_conduct_liq',), 'Insulating Material, electrical conductivity is input')