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stellarator_variables

CREATE_DICTS_FROM_DATACLASS = StellaratorData module-attribute

StellaratorData dataclass

Source code in process/data_structure/stellarator_variables.py 
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@dataclass
class StellaratorData:
    f_st_n_coils: float = 0.0
    """Actual number of coils to reference value from stella_config file"""

    f_st_rmajor: float = 0.0
    """Actual major radius to reference value from stella_config file"""

    f_st_aspect: float = 0.0
    """Actual aspect ratio to reference value from stella_config file"""

    f_st_coil_aspect: float = 1.0
    """Scaling factor for (stellarator major radius / coil radius ratio)"""

    f_st_b: float = 0.0
    """Actual b_plasma_toroidal_on_axis to reference value from stella_config file """

    f_st_i_total: float = 0.0
    """Actual total coil current to reference value from stella_config file"""

    f_st_rminor: float = 0.0
    """Actual minor radius to reference value from stella_config file"""

    f_coil_shape: float = 0.0
    """Paramtere required for coil scaling
    (min_plasma_coil_distance + stella_config_rminor_ref) / stella_config_coil_rminor
    """

    first_call: bool = True

    first_call_stfwbs: bool = True

    r_coil_minor: float = 0.0
    """Coil minor radius (m)"""

    r_coil_major: float = 0.0
    """Coil major radius (m)"""

    istell: int = 0
    """Switch for stellarator option (set via `device.dat`):
        - =0 use tokamak model
        - =1 use stellarator model: Helias5
        - =2 use stellarator model: Helias4
        - =3 use stellarator model: Helias3
        - =4 use stellarator model: Wendelstein 7-X with 50 Coils
        - =5 use stellarator model: Wendelstein 7-X with 30 Coils
        - =6 use stellarator model: Use stella_conf.json file (any modulear stellarator, see documentation)
    """

    bmn: float = 1e-3
    """relative radial field perturbation"""

    f_asym: float = 1.0
    """divertor heat load peaking factor"""

    f_rad: float = 0.85
    """radiated power fraction in SOL"""

    f_w: float = 0.5
    """island size fraction factor"""

    fdivwet: float = 0.333333333333333
    """wetted fraction of the divertor area"""

    flpitch: float = 1e-3
    """field line pitch (rad)"""

    hportamax: float = 0.0
    """maximum available area for horizontal ports (m2)"""

    hportpmax: float = 0.0
    """maximum available poloidal extent for horizontal ports (m)"""

    hporttmax: float = 0.0
    """maximum available toroidal extent for horizontal ports (m)"""

    iotabar: float = 1.0
    """rotational transform (reciprocal of tokamak q) for stellarator confinement time scaling laws"""

    isthtr: int = 1
    """Switch for stellarator auxiliary heating method:
        - = 1electron cyclotron resonance heating
        - = 2lower hybrid heating
        - = 3neutral beam injection
    """

    m_res: int = 5
    """poloidal resonance number (1)"""

    max_gyrotron_frequency: float = 1.0e9
    """Maximal available gyrotron frequency (input parameter) (Hz)"""

    n_res: int = 5
    """toroidal resonance number (1)"""

    shear: float = 0.5
    """magnetic shear, derivative of iotabar (1)"""

    te0_ecrh_achievable: float = 1.0e2
    """maximal central electron temperature as achievable by the ECRH, input. (keV)"""

    vportamax: float = 0.0
    """maximum available area for vertical ports (m2)"""

    vportpmax: float = 0.0
    """maximum available poloidal extent for vertical ports (m)"""

    vporttmax: float = 0.0
    """maximum available toroidal extent for vertical ports (m)"""

    powerht_constraint: float = 0.0

    powerscaling_constraint: float = 0.0

f_st_n_coils = 0.0 class-attribute instance-attribute

Actual number of coils to reference value from stella_config file

f_st_rmajor = 0.0 class-attribute instance-attribute

Actual major radius to reference value from stella_config file

f_st_aspect = 0.0 class-attribute instance-attribute

Actual aspect ratio to reference value from stella_config file

f_st_coil_aspect = 1.0 class-attribute instance-attribute

Scaling factor for (stellarator major radius / coil radius ratio)

f_st_b = 0.0 class-attribute instance-attribute

Actual b_plasma_toroidal_on_axis to reference value from stella_config file

f_st_i_total = 0.0 class-attribute instance-attribute

Actual total coil current to reference value from stella_config file

f_st_rminor = 0.0 class-attribute instance-attribute

Actual minor radius to reference value from stella_config file

f_coil_shape = 0.0 class-attribute instance-attribute

Paramtere required for coil scaling (min_plasma_coil_distance + stella_config_rminor_ref) / stella_config_coil_rminor

first_call = True class-attribute instance-attribute

first_call_stfwbs = True class-attribute instance-attribute

r_coil_minor = 0.0 class-attribute instance-attribute

Coil minor radius (m)

r_coil_major = 0.0 class-attribute instance-attribute

Coil major radius (m)

istell = 0 class-attribute instance-attribute

Switch for stellarator option (set via device.dat): - =0 use tokamak model - =1 use stellarator model: Helias5 - =2 use stellarator model: Helias4 - =3 use stellarator model: Helias3 - =4 use stellarator model: Wendelstein 7-X with 50 Coils - =5 use stellarator model: Wendelstein 7-X with 30 Coils - =6 use stellarator model: Use stella_conf.json file (any modulear stellarator, see documentation)

bmn = 0.001 class-attribute instance-attribute

relative radial field perturbation

f_asym = 1.0 class-attribute instance-attribute

divertor heat load peaking factor

f_rad = 0.85 class-attribute instance-attribute

radiated power fraction in SOL

f_w = 0.5 class-attribute instance-attribute

island size fraction factor

fdivwet = 0.333333333333333 class-attribute instance-attribute

wetted fraction of the divertor area

flpitch = 0.001 class-attribute instance-attribute

field line pitch (rad)

hportamax = 0.0 class-attribute instance-attribute

maximum available area for horizontal ports (m2)

hportpmax = 0.0 class-attribute instance-attribute

maximum available poloidal extent for horizontal ports (m)

hporttmax = 0.0 class-attribute instance-attribute

maximum available toroidal extent for horizontal ports (m)

iotabar = 1.0 class-attribute instance-attribute

rotational transform (reciprocal of tokamak q) for stellarator confinement time scaling laws

isthtr = 1 class-attribute instance-attribute

Switch for stellarator auxiliary heating method: - = 1electron cyclotron resonance heating - = 2lower hybrid heating - = 3neutral beam injection

m_res = 5 class-attribute instance-attribute

poloidal resonance number (1)

max_gyrotron_frequency = 1000000000.0 class-attribute instance-attribute

Maximal available gyrotron frequency (input parameter) (Hz)

n_res = 5 class-attribute instance-attribute

toroidal resonance number (1)

shear = 0.5 class-attribute instance-attribute

magnetic shear, derivative of iotabar (1)

te0_ecrh_achievable = 100.0 class-attribute instance-attribute

maximal central electron temperature as achievable by the ECRH, input. (keV)

vportamax = 0.0 class-attribute instance-attribute

maximum available area for vertical ports (m2)

vportpmax = 0.0 class-attribute instance-attribute

maximum available poloidal extent for vertical ports (m)

vporttmax = 0.0 class-attribute instance-attribute

maximum available toroidal extent for vertical ports (m)

powerht_constraint = 0.0 class-attribute instance-attribute

powerscaling_constraint = 0.0 class-attribute instance-attribute