path: root/param.ccl

# Parameter definitions for thorn GRHydro_Init_Data
# $Header$

shares:HydroBase

USES CCTK_INT timelevels
USES KEYWORD Bvec_evolution_method
USES KEYWORD Y_e_evolution_method
USES KEYWORD temperature_evolution_method
USES KEYWORD entropy_evolution_method

EXTENDS KEYWORD initial_hydro ""
{
  "shocktube" :: "Shocktube type"
  "shocktube_hot" :: "Shocktube with hot nuclear EOS"
  "only_atmo"  :: "Set only a low atmosphere"
  "read_conformal":: "After reading in initial alp, rho and gxx from h5 files, sets the other quantities"
  "simple_wave" :: "Set initial data from Anile Miller Motta, Phys.Fluids. 26, 1450 (1983)"
  "monopole"    :: "Monopole at the center"
  "cylexp"      :: "Cylindrical Explosion"
  "rotor"       :: "Magnetic Rotor test from DelZanna,Bucciantini, and Londrillo A&A 400, 397-413 (2003)"
  "advectedloop":: "Magnetic advected loop test"
  "alfvenwave"  :: "Circularly polarized Alfven wave"
  "hydro_bondi_solution" :: "Spherical single black hole Bondi solution"
  "hydro_bondi_solution_iso" :: "Spherical single black hole Bondi solution - TEST ISO CASE!!!!!!"
  "magnetized_bondi_solution" :: "Magnetized Spherical single black hole Bondi solution"
  "magnetized_bondi_solution_iso" :: "Magnetized Spherical single black hole Bondi solution - TEST ISO CASE!!!!!!"
}

EXTENDS KEYWORD initial_Bvec
{
  "shocktube"  :: "Shocktube type"
  "cylexp"     :: "Poloidal Magnetic Field"
  "poloidalmagfield" :: "Poloidal Magnetic Field"
  "magnetized Bondi" :: "radial magnetic field appropriate for Bondi test"
}

EXTENDS KEYWORD initial_Avec
{
  "poloidalmagfield" :: "Poloidal Magnetic Field"
}

EXTENDS KEYWORD initial_entropy
{
  "magnetized Bondi" :: "Initial entropy for a radial magnetic field appropriate for Bondi test"
}


shares:ADMBase

EXTENDS KEYWORD initial_data ""
{
#  "shocktube"    :: "Shock tube initial data for GRHydro"
  "con2primtest"  :: "Testing the con -> prim conversion"
  "con2prim2con_test"   :: "Testing the con -> prim -> con conversion"
  "prim2con2prim_test"  :: "Testing the prim -> con -> prim conversion"
  "prim2con2prim_polytype_test"  :: "Testing the prim -> con -> prim conversion - polytype version"
  "reconstruction_test" :: "Testing reconstruction"
}

private:

KEYWORD shocktube_type "Diagonal or parallel shock?"
{
  "diagshock"  :: "Diagonal across all axes"
  "diagshock2d"   :: "Diagonal across x-y axes"
  "xshock"  :: "Parallel to x axis"
  "yshock"  :: "Parallel to y axis"
  "zshock"  :: "Parallel to z axis"
  "sphere"  :: "spherically symmetric shock"
} "xshock"

KEYWORD shock_case "Simple, Sod's problem or other?"
{
  "Simple"  :: "GRAstro_Hydro test case"
  "Sod"     :: "Sod's problem"
  "Blast"   :: "Strong blast wave"
  "Balsaralike1" :: "Hydro version of Balsara Test #1"
  "Balsara0"    :: "Balsara Test #1, but unmagnetized"
  "Balsara1"    :: "Balsara Test #1"
  "Balsara2"    :: "Balsara Test #2"
  "Balsara3"    :: "Balsara Test #3"
  "Balsara4"    :: "Balsara Test #4"
  "Balsara5"    :: "Balsara Test #5"
  "Alfven"      :: "Generical Alfven Test"
  "Komissarov1" :: "Komissarov Test #1"
  "Komissarov2" :: "Komissarov Test #2"
  "Komissarov3" :: "Komissarov Test #3"
  "Komissarov4" :: "Komissarov Test #4"
  "Komissarov5" :: "Komissarov Test #5"
  "Komissarov6" :: "Komissarov Test #6"
  "Komissarov7" :: "Komissarov Test #7"
  "Komissarov8" :: "Komissarov Test #8"
  "Komissarov9" :: "Komissarov Test #9"
} "Sod"

REAL shock_xpos "Position of shock plane: x"
{
  *:*  :: "Anything"
} 0.0

REAL shock_ypos "Position of shock plane: y"
{
  *:*  :: "Anything"
} 0.0

REAL shock_zpos "Position of shock plane: z"
{
  *:*  :: "Anything"
} 0.0

REAL shock_radius "Radius of sperical shock"
{
  0.0:*   :: "Anything positive"
} 1.0

BOOLEAN change_shock_direction "Change the shock direction"
{ 
} "no"

REAL simple_wave_constant_c_0 "The c_0 constant in Anile Miller Motta, Phys.Fluids. 26, 1450 (1983)"
{
  0:1     :: "It is the sound speed where the fluid velocity is zero"
} 0.3

REAL simple_wave_v_max "The v_max constant in Anile Miller Motta, Phys.Fluids. 26, 1450 (1983)"
{
  0:1     :: "It is the maximum velocity in the initial configuration (see p. 1457, bottom of first column)"
} 0.7

# For the "atmosphere"

REAL atmosphere_vel[3] "Velocity of the atmosphere if non-trivial"
{
  *:*     :: "Anything"
} 0.0

BOOLEAN attenuate_atmosphere "Attenuate the velocity in the atmosphere"
{
} "no"

# Initial magnetic field used by different tests

REAL Bx_init "Initial B-field in the x-dir"
{
  *:*     :: "Anything"
} 0.0

REAL By_init "Initial B-field in the y-dir"
{
  *:*     :: "Anything"
} 0.0

REAL Bz_init "Initial B-field in the z-dir"
{
  *:*     :: "Anything"
} 0.0

# Initial primitive values:
REAL rho_init "Initial rest mass density"
{
 (0:*    :: "Anything positive."
} 1.0d-6

REAL velx_init "Initial x velocity" 
{
 *:*    :: "Anything."
} 1.0d-1

REAL vely_init "Initial y velocity" 
{
 *:*    :: "Anything."
} 1.0d-1

REAL velz_init "Initial z velocity" 
{
 *:*    :: "Anything."
} 1.0d-1

REAL eps_init "Initial specific internal energy"
{
 (0:*    :: "Anything positive."
} 1.0d-6

REAL press_init "Initial pressure"
{
 (0:*    :: "Anything positive."
} 6.666666666666667d-7

# Initial conservative values used by c2p tests:

CCTK_BOOLEAN use_c2p_with_entropy_eqn "Use the con2prim routine that uses the entropy equation instead of the energy equation"
{
} no

REAL dens_init "Initial conserved mass density"
{
 (0:*    :: "Anything positive."
} 1.29047362

REAL sx_init "Initial x component of conserved momentum density"
{
 *:*    :: "Anything."
} 0.166666658

REAL sy_init "Initial y component of conserved momentum density"
{
 *:*    :: "Anything."
} 0.166666658

REAL sz_init "Initial z component of conserved momentum density"
{
 *:*    :: "Anything."
} 0.166666658

REAL tau_init "Initial conserved total energy density"
{
 (0:*    :: "Anything positive."
} 0.484123939

# Initial values for 3-metric components. Default to euclidian 3-metric
REAL gxx_init "Initial xx metric componenent"
{
 *:*    :: "Anything, but be carefull to set a positive definite 3-metric!"
} 1.0

REAL gxy_init "Initial xy metric componenent"
{
 *:*    :: "Anything, but be carefull to set a positive definite 3-metric!"
} 0.0

REAL gxz_init "Initial xz metric componenent"
{
 *:*    :: "Anything, but be carefull to set a positive definite 3-metric!"
} 0.0

REAL gyy_init "Initial yy metric componenent"
{
 *:*    :: "Anything, but be carefull to set a positive definite 3-metric!"
} 1.0

REAL gyz_init "Initial yz metric componenent"
{
 *:*    :: "Anything, but be carefull to set a positive definite 3-metric!"
} 0.0

REAL gzz_init "Initial zz metric componenent"
{
 *:*    :: "Anything, but be carefull to set a positive definite 3-metric!"
} 1.0


KEYWORD monopole_type "Which kind of monopole?"
{
  "Point" :: "Single point with Bx /= 0"
  "Gauss" :: "Gaussian w/radius R_Gauss"
  "1dalt" :: "1-d alternating"
  "2dalt" :: "2-d alternating"
  "3dalt" :: "3-d alternating"
} "Point"

CCTK_REAL R_Gauss "Radius for a Gaussian monopole"
{
  0:* :: "Any positive number"
} 1.0

CCTK_REAL Monopole_point_Bx "Pointlike Monopole Bx value"
{
  *:* :: "Any number"
} 1.0

# For cylindrical explosion test:
CCTK_REAL cyl_r_inner "Inner Radius"
{
  (0:* :: "Any positive number"
} 0.8

CCTK_REAL cyl_r_outer "Outer Radius"
{
  (0:* :: "Any positive number"
} 1.0

# the defaults are Komissarov's values
CCTK_REAL cyl_rho_inner "density in inner core"
{
  (0:* :: "any positive number"
} 1.d-2

CCTK_REAL cyl_press_inner "pressure in inner core"
{
  (0:* :: "any positive number"
} 1.d0

CCTK_REAL cyl_rho_outer "density in outer region"
{
  (0:* :: "any positive number"
} 1.d-4

CCTK_REAL cyl_press_outer "pressure in outer region"
{
  (0:* :: "any positive number"
} 3.d-5

# For magnetic advected loop test:

KEYWORD advectedloop_type "2-dimensional or 3-dimensional?"
{
  "2D"  :: "2-dimensional (B^z=0)"
  "3D"  :: "3-dimensional (B^3=0, where B^3 || oblique cylinder axis."
} "2D"

KEYWORD advectedloop_case "V^z=0 or not?"
{
  "V^z=0"  :: "Useful to evaluate divB deviations"
  "V^z/=0" :: "Useful to evaluate con2prim robustness in keeping V^z const."
} "V^z=0"

KEYWORD advectedloop_delA "How to calculate B^i field from the potential A^b"
{
  "Exact"   :: "Analytic, exact closed formula applied"
  "Numeric" :: "Finite difference approximation of the derivatives applied"
} "Exact"

#################################3
# Alfven Wave test
################################3
KEYWORD alfvenwave_type "1-dimensional or 2-dimensional?"
{
  "1D"  :: "1-dimensional"
  "2D"  :: "2-dimensional (in x-y plane)"
} "1D"

CCTK_REAL alfvenwave_pressure "P_gas for the Alfven wave"
{
  (0:* :: "positive"
} 1.0

##################################################################################
# BONDI PARAMETERS: (black hole mass specified by parameters from the "Exact" thorn)
##################################################################################
# Default value is that used in the HARM test
CCTK_REAL mdot_sonicpt_bondi "Accretion rate at sonic point in hydro units"
{
  (0:* :: "positive"
} 12.566370614359172954

CCTK_REAL  r_sonicpt_bondi  "Radial distance of the sonic point from the black hole in units of mass_bh_bondi"
{
  (0:* :: "positive"
} 8.0

keyword bondi_coordinates  "Which coordinate system to use"
{
  "Boyer-Lindquist" :: "Schwarzschild or Boyer-Lindquist (Cartesian) Coordinates"
  "Kerr-Schild"   :: "Kerr-Schild (Cartesian) Coordinates"
  "Isotropic"     :: "Isotropic (Cartesian) Coordinates"
} "Isotropic" 


CCTK_INT num_bondi_sols  "Number of central masses about which to calculate Bondi solutions"
{
  1:100 :: "positive"
} 1

CCTK_REAL bh_bondi_pos_x [100] "X-coordinate of black hole in Bondi solution"
{
  *:* :: "anything"
} 0.0

CCTK_REAL bh_bondi_pos_y [100] "Y-coordinate of black hole in Bondi solution"
{
  *:* :: "anything"
} 0.0

CCTK_REAL bh_bondi_pos_z [100] "Z-coordinate of black hole in Bondi solution"
{
  *:* :: "anything"
} 0.0

CCTK_REAL bondi_central_mass [100] "Mass of central object to find Bondi solution about  "
{
  (0:* :: "positive"
} 1.0

CCTK_REAL bondi_central_spin [100] "Dimensionless spin of central object within Bondi solution "
{
  (-1.:1.) :: "dimensionless spin so any real number between -1 and 1"
} 0.0

CCTK_REAL bondi_rmin [100] "Smallest radius in units of central mass at which the solution is found"
{
  (0:*  :: "dimensionless inner radius for Bondi solution"
} 1.e-15

CCTK_REAL bondi_rmax [100] "Largest radius in units of central mass at which the solution is found"
{
  (0:*  :: "dimensionless outer radius for Bondi solution"
} 400. 

CCTK_REAL n_bondi_pts [100] "Number of points to use in determining global Bondi solution"
{
  (1:*  :: "number of points in global Bondi solution"
} 2000

CCTK_REAL bondi_bmag "B_0 parameter for magnetized Bondi"
{
  0:* :: "Anything positive"
} 0.01

CCTK_REAL bondi_radial_offset "redefine r_grid=r_KS-r0 to avoid singularity on grid"
{
  0:* :: "Any positive number"
} 0.0

CCTK_BOOLEAN set_bondi_beta_sonicpt "Set plasma beta parameter instead of bondi_bmag"
{
} no

CCTK_REAL  bondi_beta_sonicpt "Plasma beta parameter at the sonic point. Calculate bondi_bmag afterwards."
{
  (0:* :: "positive"
} 1.0

CCTK_KEYWORD bondi_Bvec_method "how to compute the magnetic field vector"
{
  "direct"    :: "directly from Cartesian metric"
  "transform" :: "transform Schwarzschild solution to Kerr Schild"
} "direct"

CCTK_BOOLEAN bondi_evolve_only_annulus "reset to initial data outside of bondi_freeze_inner_radius and bondi_freeze_outer_radius"
{
} "no"

CCTK_REAL bondi_freeze_inner_radius "reset to initial at radii below this"
{
  *:* :: "any value"
} -1.

CCTK_REAL bondi_freeze_outer_radius "reset to initial at radii above this"
{
  *:* :: "any value"
} 1e300

CCTK_BOOLEAN bondi_overwrite_boundary "reset data to initial data in outer boundary in boundary condition"
{
} "no"

# For Poloidal Magnetic field test:

CCTK_REAL poloidal_A_b  "Vector potential strength"
{
  *:* :: "Anything."
} 0.1

CCTK_INT poloidal_n_p  "Vector potential strength"
{
  0:*  :: "Any positive integer."
} 3

CCTK_REAL poloidal_P_cut  "Pressure used to confine the B field inside a star"
{
  (0:*  :: "Anything positive."
} 1.0e-8

CCTK_REAL poloidal_rho_max  "Maximum initial density"
{
  (0:*  :: "Anything positive."
} 1.0e-3

# for the Magnetic Rotor test:
# default values are from DelZanna,Bucciantini, and Londrillo A&A 400, 397–413 (2003) though notation differs

CCTK_REAL rotor_xc "center of rotation"
{
  *:* :: "Any location"
} 0.5

CCTK_REAL rotor_yc "center of rotation"
{
  *:* :: "Any location"
} 0.5

CCTK_REAL rotor_bvcxl "intial component of Bvec[0]"
{
  *:* :: "any real number"
} 1.0

CCTK_REAL rotor_bvcyl "intial component of Bvec[1]"
{
  *:* :: "any real number"
} 0.0

CCTK_REAL rotor_bvczl "intial component of Bvec[2]"
{
  *:* :: "any real number"
} 0.0
  
CCTK_REAL rotor_r_rot "radius of rotor"
{
  (0:* :: "any positive number"
} 0.1
  
CCTK_REAL rotor_v_max "Maximum velocity"
{
  (-1:1) :: "any subluminal speed (negative is clockwise)"
} 0.995


CCTK_REAL rotor_rhoin "initial density inside rotor"
{
  (0:* :: "any positive number"
} 10.d0

CCTK_REAL rotor_pressin "initial pressure inside rotor"
{
  (0:* :: "any positive number"
} 1.d0

CCTK_REAL rotor_rhoout "initial density outside rotor"
{
  (0:* :: "any positive number"
} 1.d0

CCTK_REAL rotor_pressout "initial pressure outside rotor"
{
  (0:* :: "any positive number"
} 1.d0

CCTK_BOOLEAN rotor_use_smoothing "Smooth the edge?"
{
} yes

CCTK_REAL rotor_rsmooth_rel "Define the radius in relative terms if so"
{
  (0:* :: "any positive number"
} 0.05


shares:GRHydro

USES real GRHydro_eos_rf_prec
USES real GRHydro_rho_central
USES real GRHydro_eps_min ""
USES real GRHydro_perc_ptol ""
USES real GRHydro_del_ptol ""
USES string GRHydro_eos_type ""
USES string GRHydro_eos_table ""
USES real rho_abs_min
USES real rho_rel_min
USES REAL initial_rho_abs_min
USES REAL initial_rho_rel_min
USES REAL initial_atmosphere_factor
USES int GRHydro_stencil
USES BOOLEAN clean_divergence

shares:EOS_Omni
USES REAL gl_gamma
USES BOOLEAN nuceos_read_table