# ------------------  INPUTS TO MAIN PROGRAM  -------------------
max_step  =  100  # maximum timestep
max_step  =  10  # maximum timestep
stop_time =  18.0   # maximum problem time

# ------------------  INPUTS TO AMR CLASS  ---------------------
# set up for bubble
geometry.coord_sys      = 0        # 0 => cart, 1 => RZ
geometry.prob_lo     =  0. -4.45 -4.45
geometry.prob_hi     =  35.6 4.45 4.45
geometry.is_periodic =  0 0 0

amr.v = 1                     # Verbose output?
amr.n_cell    =  128 32 32
amr.n_cell    =  64 16 16 
amr.n_cell    =  32 8 8 
amr.max_level =  2            # maximum level number allowed
amr.max_level =  0            # maximum level number allowed
amr.max_level =  1            # maximum level number allowed
amr.ref_ratio       = 4 4   # refinement ratio
amr.ref_ratio       = 2 4   # refinement ratio
amr.regrid_int      = 2       # how often to regrid
amr.n_error_buf     = 2 2 1 1    # number of buffer cells in error est
amr.grid_eff        = 0.7     # what constitutes an efficient grid
amr.blocking_factor = 1       # block factor in grid generation
amr.check_int       = 20      # number of timesteps between checkpoints
amr.check_file      = chk 20 # root name of checkpoint file
amr.plot_file       = plt 10
amr.plot_int        = 10
#amr.plot_vars       = density xmom ymom zmom eden tracer
amr.grid_log        = grdlog  # name of grid logging file
amr.probin_file     = probin.helium  # name of the Fortran initialization file
amr.max_grid_size   = 32
amr.max_grid_size   = 16
#amr.regrid_file=grids.fp

# ------------------  INPUTS TO PHYSICS CLASS  -------------------
hyp.v = 1                     # Verbose output?
hyp.dt_cutoff      = 0.000000001  # level 0 timestep below which we halt
hyp.cfl            = 1.0	     # cfl number for hyperbolic system
hyp.cfl            = 0.7	     # cfl number for hyperbolic system
hyp.cfl            = 0.9	     # cfl number for hyperbolic system
hyp.init_shrink    = 0.3      # scale back initial timestep
hyp.change_max     = 1.1      # scale back initial timestep
hyp.gravity        = 0.
hyp.sum_interval   = 0        # timesteps between computing mass 
hyp.do_reflux      = 1        # 1 => do refluxing

hyp.bogus_value = 5.0e+5

# ----------------  PROBLEM DEPENDENT INPUTS
Prob.lo_bc          = 2 4 4
Prob.hi_bc          = 1 4 4
# >>>>>>>>>>>>>  BC FLAGS <<<<<<<<<<<<<<<<
# 0 = Interior/Periodic  3 = Symmetry
# 1 = Inflow             4 = SlipWall
# 2 = Outflow            5 = NoSlipWall

#
# select form of FAB output: default is NATIVE
#   ASCII  (this is very slow)
#   NATIVE (native binary form on machine -- the default)
#   IEEE32 (useful if you want 32bit files when running in double precision)
#   8BIT   (eight-bit run-length-encoded)
#
fab.format = NATIVE
#
# Initializes distribution strategy from ParmParse.
#
# ParmParse options are:
#
#   DistributionMapping.strategy = ROUNDROBIN
#   DistributionMapping.strategy = KNAPSACK
#
# The default strategy is ROUNDROBIN.
#
DistributionMapping.strategy = ROUNDROBIN
DistributionMapping.strategy = KNAPSACK
#
# StationData.vars     -- Names of StateData components to output
# StationData.coord    -- BL_SPACEDIM array of Reals
# StationData.coord    -- the next one
# StationData.coord    -- ditto ...
#
# e.g.
#
#StationData.vars  = density xmom ymom zmom
#StationData.coord = 0.1 0.1 0.1
#StationData.coord = 0.11 0.21 0.3
#StationData.coord = 0.5 0.5 0.5
#StationData.coord = 1.23 1.23 1.23
#StationData.coord = 0.23 1.53 2.83
#StationData.coord = 2.34 2.34 2.34
