#--------------------
primitives = fk.Primitive(triangular_mesh,
layer,
free_surface=FREE_SURFACE_0,
QXinit=Q_IN,
QYinit=0.)
################################################################################
#
# Boundary conditions:
#---------------------
fluvial_flowrates = [
fk.FluvialFlowRate(ref=1,
flowrate=Q_IN,
x_flux_direction=1.0,
y_flux_direction=0.0)
]
fluvial_heights = [fk.FluvialHeight(ref=2, height=H_OUT)]
torrential_outs = [fk.TorrentialOut(ref=2)]
slides = [fk.Slide(ref=3), fk.Slide(ref=4)]
################################################################################
#
# Problem definition:
#--------------------
if FLOW == 'sub' or 'trans_shock':
problem = fk.Problem(
#
# Boundary conditions:
#---------------------
#
#Boundary conditions are the same as in reiver example excepts we define inlet
#flowrate in a input file.
times, flowrates = np.loadtxt('inputs/river_polluant_flowrate.txt',
unpack=True)
flowrate = fk.TimeDependentFlowRate(times=times, flowrates=flowrates)
fluvial_flowrates = [
fk.FluvialFlowRate(ref=1,
time_dependent_flowrate=flowrate,
x_flux_direction=1.0,
y_flux_direction=0.0,
tracers_inlet={
'polluant_0': 0.,
'polluant_1': 10.
})
]
fluvial_heights = [
fk.FluvialHeight(ref=2,
height=2.,
tracers_inlet={
'polluant_0': 0.,
'polluant_1': 10.
})
]
slides = [fk.Slide(ref=3)]
primitives = fk.Primitive(triangular_mesh, layer, free_surface_funct=eta_0)
tracers = [fk.Tracer(triangular_mesh, layer, primitives, Tinit_funct=T_0)]
################################################################################
#
# Boundary conditions:
#---------------------
slides = [fk.Slide(ref=1), fk.Slide(ref=3)]
torrential_outs = [fk.TorrentialOut(ref=2)]
tube = fk.RectangularTube(xlim=(0.0, 4.0), ylim=(0.0, 6.0), zlim=(0.0, 6.0))
flowrate = fk.TimeDependentFlowRate(times=[0.0, 0.0], flowrates=[0.0, 0.0])
fluvial_flowrates = [
fk.FluvialFlowRate(ref=4,
time_dependent_flowrate=flowrate,
rectangular_tube=tube,
x_flux_direction=1.0,
y_flux_direction=0.0)
]
################################################################################
#
# Problem definition:
#--------------------
thacker = fk.Problem(simutime,
triangular_mesh,
layer,
primitives,
tracers=tracers,
slides=slides,
simutime = fk.SimuTime(final_time=1500., time_iteration_max=100000)
triangular_mesh = fk.TriangularMesh.from_msh_file(
'../simulations/inputs/river.msh')
NL = 8
layer = fk.Layer(NL, triangular_mesh, topography=0.)
primitives = fk.Primitive(triangular_mesh, layer, height=1.0)
flowrate = fk.TimeDependentFlowRate(times=[0.0, 1000.0, 10000],
flowrates=[0.0, 10.0, 10.0])
fluvial_flowrates = [
fk.FluvialFlowRate(ref=2,
time_dependent_flowrate=flowrate,
x_flux_direction=1.0,
y_flux_direction=0.0)
]
slides = [fk.Slide(ref=1)]
fluvial_heights = [fk.FluvialHeight(ref=3, height=1.)]
################################################################################
#
# Plot boundary conditions on mesh:
#-----------------------------------
#
#To check boundary labels:
#
colors = {0: 'blue', 1: 'red', 2: 'green', 3: 'purple'}
layer_l = []
primitives_l = []
friction_l = []
viscosity_l = []
problem_l = []
triangular_mesh = fk.TriangularMesh.from_msh_file('../simulations/inputs/simple_canal.msh')
################################################################################
#
#Boundary conditions are statically defined in this example but they could have
#been changed as well.
#
fluvial_flowrates = [fk.FluvialFlowRate(ref=1,
flowrate=5.,
x_flux_direction=1.0,
y_flux_direction=0.0)]
fluvial_heights = [fk.FluvialHeight(ref=2, height=2.)]
slide = [fk.Slide(ref=3), fk.Slide(ref=4)]
################################################################################
#
# Resolution:
#--------------------
#
#We loop over cases:
for C, NL in enumerate(cases):
print(" ")
print(" ")
