def main(id_problem, tol=1e-5, N_pts=1000, if_export=False):
folder_export = 'example_2_2_tpfa/' + str(id_problem) + "/"
file_export = 'tpfa'
gb = example_2_2_create_grid.create(id_problem, tol=tol)
# Assign parameters
example_2_2_data.add_data(gb, tol)
# Choose and define the solvers and coupler
solver_flux = tpfa.TpfaDFN(gb.dim_max(), 'flow')
A_flux, b_flux = solver_flux.matrix_rhs(gb)
solver_source = source.IntegralDFN(gb.dim_max(), 'flow')
A_source, b_source = solver_source.matrix_rhs(gb)
p = sps.linalg.spsolve(A_flux + A_source, b_flux + b_source)
solver_flux.split(gb, 'pressure', p)
if if_export:
save = Exporter(gb, file_export, folder_export)
save.write_vtk(['pressure'])
b_box = gb.bounding_box()
y_range = np.linspace(b_box[0][1] + tol, b_box[1][1] - tol, N_pts)
pts = np.stack((1.5 * np.ones(N_pts), y_range, 0.5 * np.ones(N_pts)))
values = example_2_2_data.plot_over_line(gb, pts, 'pressure', tol)
arc_length = y_range - b_box[0][1]
np.savetxt(folder_export + "plot_over_line.txt", (arc_length, values))
# compute the flow rate
fvutils.compute_discharges(gb, 'flow')
diam, flow_rate = example_2_2_data.compute_flow_rate(gb, tol)
np.savetxt(folder_export + "flow_rate.txt", (diam, flow_rate))
def main(id_problem, tol=1e-5, N_pts=1000, if_export=False):
mesh_size = 0.025 # 0.01 0.05
folder_export = 'example_2_3_tpfa_' + str(mesh_size) + '/' + str(
id_problem) + "/"
file_export = 'tpfa'
gb = example_2_3_create_grid.create(id_problem,
mesh_size=mesh_size,
tol=tol)
# Assign parameters
example_2_3_data.add_data(gb, tol)
# Choose and define the solvers and coupler
solver_flux = tpfa.TpfaDFN(gb.dim_max(), 'flow')
A_flux, b_flux = solver_flux.matrix_rhs(gb)
solver_source = source.IntegralDFN(gb.dim_max(), 'flow')
A_source, b_source = solver_source.matrix_rhs(gb)
p = sps.linalg.spsolve(A_flux + A_source, b_flux + b_source)
solver_flux.split(gb, "p", p)
if if_export:
save = Exporter(gb, file_export, folder_export)
save.write_vtk(["p"])
b_box = gb.bounding_box()
y_range = np.linspace(b_box[0][1] + tol, b_box[1][1] - tol, N_pts)
pts = np.stack((0.35 * np.ones(N_pts), y_range, np.zeros(N_pts)))
values = example_2_3_data.plot_over_line(gb, pts, 'p', tol)
arc_length = y_range - b_box[0][1]
np.savetxt(folder_export + "plot_over_line.txt", (arc_length, values))
# compute the flow rate
fvutils.compute_discharges(gb, 'flow')
diam, flow_rate = example_2_3_data.compute_flow_rate(gb, tol)
np.savetxt(folder_export + "flow_rate.txt", (diam, flow_rate))
# compute the number of cells
num_cells = gb.num_cells(lambda g: g.dim == 2)
with open(folder_export + "cells.txt", "w") as f:
f.write(str(num_cells))
def main(grid_name, direction):
file_export = "solution"
tol = 1e-4
folder_grids = "/home/elle/Dropbox/Work/tipetut/"
gb = pickle.load(open(folder_grids + grid_name, "rb"))
folder_export = "./example_4_tpfa_" + grid_name + "_" + direction + "/"
domain = {
"xmin": -800,
"xmax": 600,
"ymin": 100,
"ymax": 1500,
"zmin": -100,
"zmax": 1000,
}
example_4_data.add_data(gb, domain, direction, tol)
# Choose and define the solvers and coupler
solver_flux = tpfa.TpfaDFN(gb.dim_max(), "flow")
A_flux, b_flux = solver_flux.matrix_rhs(gb)
solver_source = source.IntegralDFN(gb.dim_max(), "flow")
A_source, b_source = solver_source.matrix_rhs(gb)
p = sps.linalg.spsolve(A_flux + A_source, b_flux + b_source)
solver_flux.split(gb, "p", p)
save = Exporter(gb, file_export, folder_export)
save.write_vtk(["p"])
# compute the flow rate
fvutils.compute_discharges(gb, "flow")
diam, flow_rate = example_4_data.compute_flow_rate(gb, direction, domain,
tol)
np.savetxt(folder_export + "flow_rate.txt", (diam, flow_rate))
# compute the number of cells
num_cells = gb.num_cells(lambda g: g.dim == 2)
with open(folder_export + "cells.txt", "w") as f:
f.write(str(num_cells))
def main(grid_name, direction):
file_export = 'solution'
tol = 1e-4
folder_grids = '/home/elle/Dropbox/Work/tipetut/'
gb = pickle.load(open(folder_grids + grid_name, 'rb'))
folder_export = './example_4_mpfa_' + grid_name + '_' + direction + '/'
domain = {
'xmin': -800,
'xmax': 600,
'ymin': 100,
'ymax': 1500,
'zmin': -100,
'zmax': 1000
}
example_4_data.add_data(gb, domain, direction, tol)
# Choose and define the solvers and coupler
solver_flux = mpfa.MpfaDFN(gb.dim_max(), 'flow')
A_flux, b_flux = solver_flux.matrix_rhs(gb)
solver_source = source.IntegralDFN(gb.dim_max(), 'flow')
A_source, b_source = solver_source.matrix_rhs(gb)
p = sps.linalg.spsolve(A_flux + A_source, b_flux + b_source)
solver_flux.split(gb, "p", p)
save = Exporter(gb, file_export, folder_export)
save.write_vtk(["p"])
# compute the flow rate
fvutils.compute_discharges(gb, 'flow')
diam, flow_rate = example_4_data.compute_flow_rate(gb, direction, domain,
tol)
np.savetxt(folder_export + "flow_rate.txt", (diam, flow_rate))
# compute the number of cells
num_cells = gb.num_cells(lambda g: g.dim == 2)
with open(folder_export + "cells.txt", "w") as f:
f.write(str(num_cells))
def main(id_problem, tol=1e-5, if_export=False):
folder_export = "example_1_tpfa/"
file_name_error = folder_export + "tpfa_error.txt"
gb = example_1_create_grid.create(0.5 / float(id_problem), tol)
if if_export:
save = Exporter(gb, "tpfa", folder_export)
example_1_data.assign_frac_id(gb)
# Assign parameters
example_1_data.add_data(gb, tol)
# Choose and define the solvers and coupler
solver_flow = tpfa.TpfaDFN(gb.dim_max(), "flow")
A_flow, b_flow = solver_flow.matrix_rhs(gb)
solver_source = source.IntegralDFN(gb.dim_max(), "flow")
A_source, b_source = solver_source.matrix_rhs(gb)
p = sps.linalg.spsolve(A_flow + A_source, b_flow + b_source)
solver_flow.split(gb, "pressure", p)
def only_max_dim(g):
return g.dim == gb.dim_max()
diam = gb.diameter(only_max_dim)
error_pressure = example_1_data.error_pressure(gb, "pressure")
print("h=", diam, "- err(p)=", error_pressure)
with open(file_name_error, "a") as f:
info = (str(gb.num_cells(only_max_dim)) + " " +
str(gb.num_cells(only_max_dim)) + " " + str(error_pressure) +
"\n")
f.write(info)
if if_export:
save.write_vtk(["pressure", "err"])
def main(id_problem, tol=1e-5, N_pts=1000, if_export=False):
mesh_size = 0.425
folder_export = "example_2_1_mpfa_" + str(mesh_size) + "/" + str(
id_problem) + "/"
file_export = "mpfa"
gb = example_2_1_create_grid.create(id_problem,
mesh_size=mesh_size,
tol=tol)
# Assign parameters
example_2_1_data.add_data(gb, tol)
# Choose and define the solvers and coupler
solver_flux = mpfa.MpfaDFN(gb.dim_max(), "flow")
A_flux, b_flux = solver_flux.matrix_rhs(gb)
solver_source = source.IntegralDFN(gb.dim_max(), "flow")
A_source, b_source = solver_source.matrix_rhs(gb)
p = sps.linalg.spsolve(A_flux + A_source, b_flux + b_source)
solver_flux.split(gb, "pressure", p)
if if_export:
save = Exporter(gb, file_export, folder_export)
save.write_vtk(["pressure"])
b_box = gb.bounding_box()
z_range = np.linspace(b_box[0][2], b_box[1][2], N_pts)
pts = np.stack((0.5 * np.ones(N_pts), 0.5 * np.ones(N_pts), z_range))
values = example_2_1_data.plot_over_line(gb, pts, "pressure", tol)
arc_length = z_range - b_box[0][2]
np.savetxt(folder_export + "plot_over_line.txt", (arc_length, values))
# compute the flow rate
fvutils.compute_discharges(gb, "flow")
diam, flow_rate = example_2_1_data.compute_flow_rate(gb, tol)
np.savetxt(folder_export + "flow_rate.txt", (diam, flow_rate))