def tsh2sww(infilename, sww_file_name = None, verbose = False):
"""
This converts a mesh file (.tsh/.msh) to an .sww file.
This is usefull to visualise the mesh.
Note: This currently just writes the output file in the input file dir.
"""
if verbose == True: log.critical('Creating domain from %s' % infilename)
domain = pmesh_to_domain_instance(infilename, Domain)
if verbose == True: log.critical("Number of triangles = %d" % len(domain))
domain.smooth = True
domain.format = 'sww' #Native netcdf visualisation format
file_path, filename = path.split(infilename)
filename, ext = path.splitext(filename)
if not (sww_file_name is None):
file_path, filename = path.split(sww_file_name)
filename, ext = path.splitext(filename)
domain.set_name(filename)
domain.reduction = mean
if verbose == True: log.critical("file_path %s" % file_path)
if file_path == "":file_path = "."
domain.set_datadir(file_path)
if verbose == True:
log.critical("Output written to %s%s%s.%s" % (domain.get_datadir(), sep, domain.get_name(), domain.format))
sww = SWW_file(domain)
sww.store_connectivity()
sww.store_timestep('stage')
def test_sww_header(self):
"""Test that constant sww information can be written correctly
(non smooth)
"""
self.domain.set_name('datatest' + str(id(self)))
self.domain.format = 'sww' #Remove??
self.domain.smooth = False
sww = SWW_file(self.domain)
sww.store_connectivity()
# Check contents
# Get NetCDF
fid = NetCDFFile(sww.filename, netcdf_mode_r) # Open existing file for append
# Get the variables
sww_revision = fid.revision_number
try:
revision_number = get_revision_number()
except:
revision_number = None
assert str(revision_number) == sww_revision
fid.close()
#print "sww.filename", sww.filename
os.remove(sww.filename)
def test_sww_constant(self):
"""Test that constant sww information can be written correctly
(non smooth)
"""
self.domain.set_name('datatest' + str(id(self)))
self.domain.format = 'sww' #Remove??
self.domain.smooth = False
sww = SWW_file(self.domain)
sww.store_connectivity()
fid = NetCDFFile(sww.filename, netcdf_mode_r) # Open existing file for append
# Get the variables
x = fid.variables['x']
y = fid.variables['y']
z = fid.variables['elevation']
V = fid.variables['volumes']
assert num.allclose (x[:], self.X.flatten())
assert num.allclose (y[:], self.Y.flatten())
assert num.allclose (z[:], self.F.flatten())
P = len(self.domain)
for k in range(P):
assert V[k, 0] == 3*k
assert V[k, 1] == 3*k+1
assert V[k, 2] == 3*k+2
fid.close()
os.remove(sww.filename)
def _create_sww(self,stage=10.0, timestep=2.0):
self.sww = SWW_file(self.domain)
self.sww.store_connectivity()
self.sww.store_timestep()
self.domain.set_quantity('stage', stage) # This is automatically limited
# so it will not be less than the elevation
self.domain.set_time(self.domain.get_time()+timestep)
self.sww.store_timestep()
def test_sww_variable2(self):
"""Test that sww information can be written correctly
multiple timesteps. Use average as reduction operator
"""
import time, os
self.domain.set_name('datatest' + str(id(self)))
self.domain.format = 'sww'
self.domain.smooth = True
self.domain.reduction = mean
sww = SWW_file(self.domain)
sww.store_connectivity()
sww.store_timestep()
#self.domain.tight_slope_limiters = 1
self.domain.evolve_to_end(finaltime=0.01)
sww.store_timestep()
# Check contents
# Get NetCDF
fid = NetCDFFile(sww.filename, netcdf_mode_r)
# Get the variables
x = fid.variables['x']
y = fid.variables['y']
z = fid.variables['elevation']
time = fid.variables['time']
stage = fid.variables['stage']
#Check values
Q = self.domain.quantities['stage']
Q0 = Q.vertex_values[:, 0]
Q1 = Q.vertex_values[:, 1]
Q2 = Q.vertex_values[:, 2]
A = stage[1, :]
assert num.allclose(A[0],
old_div((Q2[0] + Q1[1]), 2),
rtol=1.0e-5,
atol=1.0e-5)
assert num.allclose(A[1],
old_div((Q0[1] + Q1[3] + Q2[2]), 3),
rtol=1.0e-5,
atol=1.0e-5)
assert num.allclose(A[2], Q0[3], rtol=1.0e-5, atol=1.0e-5)
assert num.allclose(A[3],
old_div((Q0[0] + Q1[5] + Q2[4]), 3),
rtol=1.0e-5,
atol=1.0e-5)
#Center point
assert num.allclose(A[4], old_div((Q1[0] + Q2[1] + Q0[2] +\
Q0[5] + Q2[6] + Q1[7]),6), rtol=1.0e-5, atol=1.0e-5)
fid.close()
#Cleanup
os.remove(sww.filename)
def test_sww_variable(self):
"""Test that sww information can be written correctly
"""
self.domain.set_name('datatest' + str(id(self)))
self.domain.format = 'sww'
self.domain.smooth = True
self.domain.reduction = mean
sww = SWW_file(self.domain)
sww.store_connectivity()
sww.store_timestep()
# Check contents
# Get NetCDF
fid = NetCDFFile(sww.filename, netcdf_mode_r) # Open existing file for append
# Get the variables
time = fid.variables['time']
stage = fid.variables['stage']
Q = self.domain.quantities['stage']
Q0 = Q.vertex_values[:,0]
Q1 = Q.vertex_values[:,1]
Q2 = Q.vertex_values[:,2]
A = stage[0,:]
# print stage[0,:]
# print A[0], (Q2[0] + Q1[1])/2
# print A[1], (Q0[1] + Q1[3] + Q2[2])/3
# print A[2], Q0[3]
# print A[3], (Q0[0] + Q1[5] + Q2[4])/3
assert num.allclose(A[0], (Q2[0] + Q1[1])/2, rtol=1.0e-5, atol=1.0e-5)
assert num.allclose(A[1], (Q0[1] + Q1[3] + Q2[2])/3, rtol=1.0e-5, atol=1.0e-5)
assert num.allclose(A[2], Q0[3])
assert num.allclose(A[3], (Q0[0] + Q1[5] + Q2[4])/3, rtol=1.0e-5, atol=1.0e-5)
#Center point
assert num.allclose(A[4], (Q1[0] + Q2[1] + Q0[2] +\
Q0[5] + Q2[6] + Q1[7])/6, rtol=1.0e-5, atol=1.0e-5)
fid.close()
os.remove(sww.filename)
def test_sww_minimum_storable_height(self):
"""Test that sww information can be written correctly
multiple timesteps using a different reduction operator (min)
"""
import time, os
self.domain.set_name('datatest' + str(id(self)))
self.domain.format = 'sww'
self.domain.smooth = True
self.domain.reduction = min
self.domain.minimum_storable_height = 100
sww = SWW_file(self.domain)
sww.store_connectivity()
sww.store_timestep()
#self.domain.tight_slope_limiters = 1
self.domain.evolve_to_end(finaltime = 0.01)
sww.store_timestep()
#Check contents
#Get NetCDF
fid = NetCDFFile(sww.filename, netcdf_mode_r)
# Get the variables
x = fid.variables['x']
y = fid.variables['y']
z = fid.variables['elevation']
time = fid.variables['time']
stage = fid.variables['stage']
xmomentum = fid.variables['xmomentum']
ymomentum = fid.variables['ymomentum']
#Check values
Q = self.domain.quantities['stage']
Q0 = Q.vertex_values[:,0]
Q1 = Q.vertex_values[:,1]
Q2 = Q.vertex_values[:,2]
A = stage[1,:]
assert num.allclose(stage[1,:], z[:])
assert num.allclose(xmomentum, 0.0)
assert num.allclose(ymomentum, 0.0)
fid.close()
#Cleanup
os.remove(sww.filename)
def test_sww_range(self):
"""Test that constant sww information can be written correctly
Use non-smooth to be able to compare to quantity values.
"""
self.domain.set_name('datatest' + str(id(self)))
self.domain.format = 'sww'
self.domain.set_store_vertices_uniquely(True)
sww = SWW_file(self.domain)
dqs = self.domain.get_quantity('stage')
dqx = self.domain.get_quantity('xmomentum')
dqy = self.domain.get_quantity('ymomentum')
xmom_min = ymom_min = stage_min = sys.maxint
xmom_max = ymom_max = stage_max = -stage_min
for t in self.domain.evolve(yieldstep = 1, finaltime = 1):
wmax = max(dqs.get_values().flatten())
if wmax > stage_max: stage_max = wmax
wmin = min(dqs.get_values().flatten())
if wmin < stage_min: stage_min = wmin
uhmax = max(dqx.get_values().flatten())
if uhmax > xmom_max: xmom_max = uhmax
uhmin = min(dqx.get_values().flatten())
if uhmin < xmom_min: xmom_min = uhmin
vhmax = max(dqy.get_values().flatten())
if vhmax > ymom_max: ymom_max = vhmax
vhmin = min(dqy.get_values().flatten())
if vhmin < ymom_min: ymom_min = vhmin
# Get NetCDF
fid = NetCDFFile(sww.filename, netcdf_mode_r) # Open existing file for append
# Get the variables
range = fid.variables['stage_range'][:]
assert num.allclose(range,[stage_min, stage_max])
range = fid.variables['xmomentum_range'][:]
#print range
assert num.allclose(range, [xmom_min, xmom_max])
range = fid.variables['ymomentum_range'][:]
#print range
assert num.allclose(range, [ymom_min, ymom_max])
fid.close()
os.remove(sww.filename)
def tsh2sww(infilename, sww_file_name=None, verbose=False):
"""
This converts a mesh file (.tsh/.msh) to an .sww file.
This is usefull to visualise the mesh.
Note: This currently just writes the output file in the input file dir.
"""
if verbose == True: log.critical('Creating domain from %s' % infilename)
domain = pmesh_to_domain_instance(infilename, Domain)
if verbose == True: log.critical("Number of triangles = %d" % len(domain))
domain.smooth = True
domain.format = 'sww' #Native netcdf visualisation format
file_path, filename = path.split(infilename)
filename, ext = path.splitext(filename)
if not (sww_file_name is None):
file_path, filename = path.split(sww_file_name)
filename, ext = path.splitext(filename)
domain.set_name(filename)
domain.reduction = mean
if verbose == True: log.critical("file_path %s" % file_path)
if file_path == "": file_path = "."
domain.set_datadir(file_path)
if verbose == True:
log.critical(
"Output written to %s%s%s.%s" %
(domain.get_datadir(), sep, domain.get_name(), domain.format))
sww = SWW_file(domain)
sww.store_connectivity()
sww.store_timestep('stage')
def test_sww_constant_smooth(self):
"""Test that constant sww information can be written correctly
(non smooth)
"""
self.domain.set_name('datatest' + str(id(self)))
self.domain.format = 'sww'
self.domain.smooth = True
sww = SWW_file(self.domain)
sww.store_connectivity()
# Check contents
# Get NetCDF
fid = NetCDFFile(sww.filename,
netcdf_mode_r) # Open existing file for append
# Get the variables
X = fid.variables['x'][:]
Y = fid.variables['y'][:]
Z = fid.variables['elevation'][:]
V = fid.variables['volumes']
assert num.allclose([X[0], Y[0]], num.array([0.0, 0.0]))
assert num.allclose([X[1], Y[1]], num.array([0.0, 0.5]))
assert num.allclose([X[2], Y[2]], num.array([0.0, 1.0]))
assert num.allclose([X[4], Y[4]], num.array([0.5, 0.5]))
assert num.allclose([X[7], Y[7]], num.array([1.0, 0.5]))
assert Z[4] == -0.5
assert V[2, 0] == 4
assert V[2, 1] == 5
assert V[2, 2] == 1
assert V[4, 0] == 6
assert V[4, 1] == 7
assert V[4, 2] == 3
fid.close()
os.remove(sww.filename)
def test_sww_constant_smooth(self):
"""Test that constant sww information can be written correctly
(non smooth)
"""
self.domain.set_name('datatest' + str(id(self)))
self.domain.format = 'sww'
self.domain.smooth = True
sww = SWW_file(self.domain)
sww.store_connectivity()
# Check contents
# Get NetCDF
fid = NetCDFFile(sww.filename, netcdf_mode_r) # Open existing file for append
# Get the variables
X = fid.variables['x'][:]
Y = fid.variables['y'][:]
Z = fid.variables['elevation'][:]
V = fid.variables['volumes']
assert num.allclose([X[0], Y[0]], num.array([0.0, 0.0]))
assert num.allclose([X[1], Y[1]], num.array([0.0, 0.5]))
assert num.allclose([X[2], Y[2]], num.array([0.0, 1.0]))
assert num.allclose([X[4], Y[4]], num.array([0.5, 0.5]))
assert num.allclose([X[7], Y[7]], num.array([1.0, 0.5]))
assert Z[4] == -0.5
assert V[2,0] == 4
assert V[2,1] == 5
assert V[2,2] == 1
assert V[4,0] == 6
assert V[4,1] == 7
assert V[4,2] == 3
fid.close()
os.remove(sww.filename)
def test_sww_variable2(self):
"""Test that sww information can be written correctly
multiple timesteps. Use average as reduction operator
"""
import time, os
self.domain.set_name('datatest' + str(id(self)))
self.domain.format = 'sww'
self.domain.smooth = True
self.domain.reduction = mean
sww = SWW_file(self.domain)
sww.store_connectivity()
sww.store_timestep()
#self.domain.tight_slope_limiters = 1
self.domain.evolve_to_end(finaltime = 0.01)
sww.store_timestep()
# Check contents
# Get NetCDF
fid = NetCDFFile(sww.filename, netcdf_mode_r)
# Get the variables
x = fid.variables['x']
y = fid.variables['y']
z = fid.variables['elevation']
time = fid.variables['time']
stage = fid.variables['stage']
#Check values
Q = self.domain.quantities['stage']
Q0 = Q.vertex_values[:,0]
Q1 = Q.vertex_values[:,1]
Q2 = Q.vertex_values[:,2]
A = stage[1,:]
assert num.allclose(A[0], (Q2[0] + Q1[1])/2, rtol=1.0e-5, atol=1.0e-5)
assert num.allclose(A[1], (Q0[1] + Q1[3] + Q2[2])/3, rtol=1.0e-5, atol=1.0e-5)
assert num.allclose(A[2], Q0[3], rtol=1.0e-5, atol=1.0e-5)
assert num.allclose(A[3], (Q0[0] + Q1[5] + Q2[4])/3, rtol=1.0e-5, atol=1.0e-5)
#Center point
assert num.allclose(A[4], (Q1[0] + Q2[1] + Q0[2] +\
Q0[5] + Q2[6] + Q1[7])/6, rtol=1.0e-5, atol=1.0e-5)
fid.close()
#Cleanup
os.remove(sww.filename)
def test_sww_variable(self):
"""Test that sww information can be written correctly
"""
self.domain.set_name('datatest' + str(id(self)))
self.domain.format = 'sww'
self.domain.smooth = True
self.domain.reduction = mean
sww = SWW_file(self.domain)
sww.store_connectivity()
sww.store_timestep()
# Check contents
# Get NetCDF
fid = NetCDFFile(sww.filename,
netcdf_mode_r) # Open existing file for append
# Get the variables
time = fid.variables['time']
stage = fid.variables['stage']
Q = self.domain.quantities['stage']
Q0 = Q.vertex_values[:, 0]
Q1 = Q.vertex_values[:, 1]
Q2 = Q.vertex_values[:, 2]
A = stage[0, :]
# print stage[0,:]
# print A[0], (Q2[0] + Q1[1])/2
# print A[1], (Q0[1] + Q1[3] + Q2[2])/3
# print A[2], Q0[3]
# print A[3], (Q0[0] + Q1[5] + Q2[4])/3
assert num.allclose(A[0],
old_div((Q2[0] + Q1[1]), 2),
rtol=1.0e-5,
atol=1.0e-5)
assert num.allclose(A[1],
old_div((Q0[1] + Q1[3] + Q2[2]), 3),
rtol=1.0e-5,
atol=1.0e-5)
assert num.allclose(A[2], Q0[3])
assert num.allclose(A[3],
old_div((Q0[0] + Q1[5] + Q2[4]), 3),
rtol=1.0e-5,
atol=1.0e-5)
#Center point
assert num.allclose(A[4], old_div((Q1[0] + Q2[1] + Q0[2] +\
Q0[5] + Q2[6] + Q1[7]),6), rtol=1.0e-5, atol=1.0e-5)
fid.close()
os.remove(sww.filename)
def test_sww_extent(self):
"""Not a test, rather a look at the sww format
"""
import time, os
self.domain.set_name('datatest' + str(id(self)))
self.domain.format = 'sww'
self.domain.smooth = True
self.domain.reduction = mean
self.domain.set_datadir('.')
#self.domain.tight_slope_limiters = 1
sww = SWW_file(self.domain)
sww.store_connectivity()
sww.store_timestep()
self.domain.time = 2.
#Modify stage at second timestep
stage = self.domain.quantities['stage'].vertex_values
self.domain.set_quantity('stage', old_div(stage, 2))
sww.store_timestep()
file_and_extension_name = self.domain.get_name() + ".sww"
#print "file_and_extension_name",file_and_extension_name
[xmin, xmax, ymin, ymax, stagemin, stagemax] = \
extent_sww(file_and_extension_name )
assert num.allclose(xmin, 0.0)
assert num.allclose(xmax, 1.0)
assert num.allclose(ymin, 0.0)
assert num.allclose(ymax, 1.0)
# FIXME (Ole): Revisit these numbers
#assert num.allclose(stagemin, -0.85), 'stagemin=%.4f' %stagemin
#assert num.allclose(stagemax, 0.15), 'stagemax=%.4f' %stagemax
#Cleanup
os.remove(sww.filename)
def test_sww_extent(self):
"""Not a test, rather a look at the sww format
"""
import time, os
self.domain.set_name('datatest' + str(id(self)))
self.domain.format = 'sww'
self.domain.smooth = True
self.domain.reduction = mean
self.domain.set_datadir('.')
#self.domain.tight_slope_limiters = 1
sww = SWW_file(self.domain)
sww.store_connectivity()
sww.store_timestep()
self.domain.time = 2.
#Modify stage at second timestep
stage = self.domain.quantities['stage'].vertex_values
self.domain.set_quantity('stage', stage/2)
sww.store_timestep()
file_and_extension_name = self.domain.get_name() + ".sww"
#print "file_and_extension_name",file_and_extension_name
[xmin, xmax, ymin, ymax, stagemin, stagemax] = \
extent_sww(file_and_extension_name )
assert num.allclose(xmin, 0.0)
assert num.allclose(xmax, 1.0)
assert num.allclose(ymin, 0.0)
assert num.allclose(ymax, 1.0)
# FIXME (Ole): Revisit these numbers
#assert num.allclose(stagemin, -0.85), 'stagemin=%.4f' %stagemin
#assert num.allclose(stagemax, 0.15), 'stagemax=%.4f' %stagemax
#Cleanup
os.remove(sww.filename)
def test_sww2pts_centroids_de0(self):
"""Test that sww information can be converted correctly to pts data at specified coordinates
- in this case, the centroids.
"""
import time, os
from anuga.file.netcdf import NetCDFFile
# Used for points that lie outside mesh
NODATA_value = 1758323
# Setup
from anuga.abstract_2d_finite_volumes.mesh_factory import rectangular
# Create shallow water domain
domain = Domain(*rectangular(2, 2))
B = Transmissive_boundary(domain)
domain.set_boundary( {'left': B, 'right': B, 'top': B, 'bottom': B})
domain.set_name('datatest_de0')
ptsfile = domain.get_name() + '_elevation.pts'
swwfile = domain.get_name() + '.sww'
domain.set_datadir('.')
domain.format = 'sww'
domain.set_quantity('elevation', lambda x,y: -x-y)
domain.geo_reference = Geo_reference(56,308500,6189000)
sww = SWW_file(domain)
sww.store_connectivity()
sww.store_timestep()
#self.domain.tight_slope_limiters = 1
domain.evolve_to_end(finaltime = 0.01)
sww.store_timestep()
# Check contents in NetCDF
fid = NetCDFFile(sww.filename, netcdf_mode_r)
# Get the variables
x = fid.variables['x'][:]
y = fid.variables['y'][:]
elevation = fid.variables['elevation'][:]
time = fid.variables['time'][:]
stage = fid.variables['stage'][:]
volumes = fid.variables['volumes'][:]
# Invoke interpolation for vertex points
points = num.concatenate( (x[:,num.newaxis],y[:,num.newaxis]), axis=1 )
points = num.ascontiguousarray(points)
sww2pts(domain.get_name() + '.sww',
quantity = 'elevation',
data_points = points,
NODATA_value = NODATA_value)
ref_point_values = elevation
point_values = Geospatial_data(ptsfile).get_attributes()
#print 'P', point_values
#print 'Ref', ref_point_values
assert num.allclose(point_values, ref_point_values)
# Invoke interpolation for centroids
points = domain.get_centroid_coordinates()
#print points
sww2pts(domain.get_name() + '.sww',
quantity = 'elevation',
data_points = points,
NODATA_value = NODATA_value)
#ref_point_values = [-0.5, -0.5, -1, -1, -1, -1, -1.5, -1.5] #At centroids
ref_point_values = [-0.77777777, -0.77777777, -0.99999998, -0.99999998,
-0.99999998, -0.99999998, -1.22222221, -1.22222221]
point_values = Geospatial_data(ptsfile).get_attributes()
#print 'P', point_values
#print 'Ref', ref_point_values
assert num.allclose(point_values, ref_point_values)
fid.close()
#Cleanup
os.remove(sww.filename)
os.remove(ptsfile)
def test_sww2pts_centroids_de0(self):
"""Test that sww information can be converted correctly to pts data at specified coordinates
- in this case, the centroids.
"""
import time, os
from anuga.file.netcdf import NetCDFFile
# Used for points that lie outside mesh
NODATA_value = 1758323
# Setup
from anuga.abstract_2d_finite_volumes.mesh_factory import rectangular
# Create shallow water domain
domain = Domain(*rectangular(2, 2))
B = Transmissive_boundary(domain)
domain.set_boundary({'left': B, 'right': B, 'top': B, 'bottom': B})
domain.set_name('datatest_de0')
ptsfile = domain.get_name() + '_elevation.pts'
swwfile = domain.get_name() + '.sww'
domain.set_datadir('.')
domain.format = 'sww'
domain.set_quantity('elevation', lambda x, y: -x - y)
domain.geo_reference = Geo_reference(56, 308500, 6189000)
sww = SWW_file(domain)
sww.store_connectivity()
sww.store_timestep()
#self.domain.tight_slope_limiters = 1
domain.evolve_to_end(finaltime=0.01)
sww.store_timestep()
# Check contents in NetCDF
fid = NetCDFFile(sww.filename, netcdf_mode_r)
# Get the variables
x = fid.variables['x'][:]
y = fid.variables['y'][:]
elevation = fid.variables['elevation'][:]
time = fid.variables['time'][:]
stage = fid.variables['stage'][:]
volumes = fid.variables['volumes'][:]
# Invoke interpolation for vertex points
points = num.concatenate((x[:, num.newaxis], y[:, num.newaxis]),
axis=1)
points = num.ascontiguousarray(points)
sww2pts(domain.get_name() + '.sww',
quantity='elevation',
data_points=points,
NODATA_value=NODATA_value)
ref_point_values = elevation
point_values = Geospatial_data(ptsfile).get_attributes()
#print 'P', point_values
#print 'Ref', ref_point_values
assert num.allclose(point_values, ref_point_values)
# Invoke interpolation for centroids
points = domain.get_centroid_coordinates()
#print points
sww2pts(domain.get_name() + '.sww',
quantity='elevation',
data_points=points,
NODATA_value=NODATA_value)
#ref_point_values = [-0.5, -0.5, -1, -1, -1, -1, -1.5, -1.5] #At centroids
ref_point_values = [
-0.77777777, -0.77777777, -0.99999998, -0.99999998, -0.99999998,
-0.99999998, -1.22222221, -1.22222221
]
point_values = Geospatial_data(ptsfile).get_attributes()
#print 'P', point_values
#print 'Ref', ref_point_values
assert num.allclose(point_values, ref_point_values)
fid.close()
#Cleanup
os.remove(sww.filename)
os.remove(ptsfile)
def setUp(self):
# print "****set up****"
# Create an sww file
# Set up an sww that has a geo ref.
# have it cover an area in Australia. 'gong maybe
# Don't have many triangles though!
# Site Name: GDA-MGA: (UTM with GRS80 ellipsoid)
# Zone: 56
# Easting: 222908.705 Northing: 6233785.284
# Latitude: -34 0 ' 0.00000 '' Longitude: 150 0 ' 0.00000 ''
# Grid Convergence: -1 40 ' 43.13 '' Point Scale: 1.00054660
# geo-ref
# Zone: 56
# Easting: 220000 Northing: 6230000
# have a big area covered.
mesh_file = tempfile.mktemp(".tsh")
points_lat_long = [[-33, 152], [-35, 152], [-35, 150], [-33, 150]]
spat = Geospatial_data(data_points=points_lat_long, points_are_lats_longs=True)
points_ab = spat.get_data_points(absolute=True)
geo = Geo_reference(56, 400000, 6000000)
spat.set_geo_reference(geo)
m = Mesh()
m.add_vertices(spat)
m.auto_segment()
m.generate_mesh(verbose=False)
m.export_mesh_file(mesh_file)
# Create shallow water domain
domain = Domain(mesh_file)
os.remove(mesh_file)
domain.default_order = 2
# Set some field values
# domain.set_quantity('stage', 1.0)
domain.set_quantity("elevation", -0.5)
domain.set_quantity("friction", 0.03)
######################
# Boundary conditions
B = Transmissive_boundary(domain)
domain.set_boundary({"exterior": B})
######################
# Initial condition - with jumps
bed = domain.quantities["elevation"].vertex_values
stage = num.zeros(bed.shape, num.float)
h = 0.3
for i in range(stage.shape[0]):
if i % 2 == 0:
stage[i, :] = bed[i, :] + h
else:
stage[i, :] = bed[i, :]
domain.set_quantity("stage", stage)
domain.set_quantity("xmomentum", stage * 22.0)
domain.set_quantity("ymomentum", stage * 55.0)
domain.distribute_to_vertices_and_edges()
self.domain = domain
C = domain.get_vertex_coordinates()
self.X = C[:, 0:6:2].copy()
self.Y = C[:, 1:6:2].copy()
self.F = bed
# sww_file = tempfile.mktemp("")
self.domain.set_name("tid_P0")
self.domain.format = "sww"
self.domain.smooth = True
self.domain.reduction = mean
sww = SWW_file(self.domain)
sww.store_connectivity()
sww.store_timestep()
self.domain.time = 2.0
sww.store_timestep()
self.sww = sww # so it can be deleted
# Create another sww file
mesh_file = tempfile.mktemp(".tsh")
points_lat_long = [[-35, 152], [-36, 152], [-36, 150], [-35, 150]]
spat = Geospatial_data(data_points=points_lat_long, points_are_lats_longs=True)
points_ab = spat.get_data_points(absolute=True)
geo = Geo_reference(56, 400000, 6000000)
spat.set_geo_reference(geo)
m = Mesh()
m.add_vertices(spat)
m.auto_segment()
m.generate_mesh(verbose=False)
m.export_mesh_file(mesh_file)
# Create shallow water domain
domain = Domain(mesh_file)
os.remove(mesh_file)
domain.default_order = 2
# Set some field values
# domain.set_quantity('stage', 1.0)
domain.set_quantity("elevation", -40)
domain.set_quantity("friction", 0.03)
######################
# Boundary conditions
B = Transmissive_boundary(domain)
domain.set_boundary({"exterior": B})
######################
# Initial condition - with jumps
bed = domain.quantities["elevation"].vertex_values
stage = num.zeros(bed.shape, num.float)
h = 30.0
for i in range(stage.shape[0]):
if i % 2 == 0:
stage[i, :] = bed[i, :] + h
else:
stage[i, :] = bed[i, :]
domain.set_quantity("stage", stage)
domain.set_quantity("xmomentum", stage * 22.0)
domain.set_quantity("ymomentum", stage * 55.0)
domain.distribute_to_vertices_and_edges()
self.domain2 = domain
C = domain.get_vertex_coordinates()
self.X2 = C[:, 0:6:2].copy()
self.Y2 = C[:, 1:6:2].copy()
self.F2 = bed
# sww_file = tempfile.mktemp("")
domain.set_name("tid_P1")
domain.format = "sww"
domain.smooth = True
domain.reduction = mean
sww = SWW_file(domain)
sww.store_connectivity()
sww.store_timestep()
domain.time = 2.0
sww.store_timestep()
self.swwII = sww # so it can be deleted
# print "sww.filename", sww.filename
# Create a csv file
self.csv_file = tempfile.mktemp(".csv")
fd = open(self.csv_file, "wb")
writer = csv.writer(fd)
writer.writerow(
["LONGITUDE", "LATITUDE", STR_VALUE_LABEL, CONT_VALUE_LABEL, "ROOF_TYPE", WALL_TYPE_LABEL, SHORE_DIST_LABEL]
)
writer.writerow(["151.5", "-34", "199770", "130000", "Metal", "Timber", 20.0])
writer.writerow(["151", "-34.5", "150000", "76000", "Metal", "Double Brick", 200.0])
writer.writerow(["151", "-34.25", "150000", "76000", "Metal", "Brick Veneer", 200.0])
fd.close()
# Create a csv file
self.csv_fileII = tempfile.mktemp(".csv")
fd = open(self.csv_fileII, "wb")
writer = csv.writer(fd)
writer.writerow(
["LONGITUDE", "LATITUDE", STR_VALUE_LABEL, CONT_VALUE_LABEL, "ROOF_TYPE", WALL_TYPE_LABEL, SHORE_DIST_LABEL]
)
writer.writerow(["151.5", "-34", "199770", "130000", "Metal", "Timber", 20.0])
writer.writerow(["151", "-34.5", "150000", "76000", "Metal", "Double Brick", 200.0])
writer.writerow(["151", "-34.25", "150000", "76000", "Metal", "Brick Veneer", 200.0])
fd.close()
def test_inundation_damage_list(self):
# create mesh
mesh_file = tempfile.mktemp(".tsh")
points = [[0.0, 0.0], [6.0, 0.0], [6.0, 6.0], [0.0, 6.0]]
m = Mesh()
m.add_vertices(points)
m.auto_segment()
m.generate_mesh(verbose=False)
m.export_mesh_file(mesh_file)
# Create shallow water domain
domain = Domain(mesh_file)
os.remove(mesh_file)
domain.default_order = 2
# Set some field values
domain.set_quantity("elevation", elevation_function)
domain.set_quantity("friction", 0.03)
domain.set_quantity("xmomentum", 22.0)
domain.set_quantity("ymomentum", 55.0)
######################
# Boundary conditions
B = Transmissive_boundary(domain)
domain.set_boundary({"exterior": B})
# This call mangles the stage values.
domain.distribute_to_vertices_and_edges()
domain.set_quantity("stage", 0.3)
# sww_file = tempfile.mktemp("")
domain.set_name("datatest" + str(time.time()))
domain.format = "sww"
domain.smooth = True
domain.reduction = mean
sww = SWW_file(domain)
sww.store_connectivity()
sww.store_timestep()
domain.set_quantity("stage", -0.3)
domain.time = 2.0
sww.store_timestep()
# Create a csv file
csv_file = tempfile.mktemp(".csv")
fd = open(csv_file, "wb")
writer = csv.writer(fd)
writer.writerow(["x", "y", STR_VALUE_LABEL, CONT_VALUE_LABEL, "ROOF_TYPE", WALL_TYPE_LABEL, SHORE_DIST_LABEL])
writer.writerow([5.5, 0.5, "10", "130000", "Metal", "Timber", 20])
writer.writerow([4.5, 1.0, "150", "76000", "Metal", "Double Brick", 20])
writer.writerow([0.1, 1.5, "100", "76000", "Metal", "Brick Veneer", 300])
writer.writerow([6.1, 1.5, "100", "76000", "Metal", "Brick Veneer", 300])
fd.close()
extension = ".csv"
csv_fileII = tempfile.mktemp(extension)
fd = open(csv_fileII, "wb")
writer = csv.writer(fd)
writer.writerow(["x", "y", STR_VALUE_LABEL, CONT_VALUE_LABEL, "ROOF_TYPE", WALL_TYPE_LABEL, SHORE_DIST_LABEL])
writer.writerow([5.5, 0.5, "10", "130000", "Metal", "Timber", 20])
writer.writerow([4.5, 1.0, "150", "76000", "Metal", "Double Brick", 20])
writer.writerow([0.1, 1.5, "100", "76000", "Metal", "Brick Veneer", 300])
writer.writerow([6.1, 1.5, "100", "76000", "Metal", "Brick Veneer", 300])
fd.close()
sww_file = domain.get_name() + "." + domain.format
# print "sww_file",sww_file
marker = "_gosh"
inundation_damage(sww_file, [csv_file, csv_fileII], exposure_file_out_marker=marker, verbose=False)
# Test one file
csv_handle = Exposure(csv_file[:-4] + marker + extension)
struct_loss = csv_handle.get_column(EventDamageModel.STRUCT_LOSS_TITLE)
# print "struct_loss",struct_loss
struct_loss = [float(x) for x in struct_loss]
# pprint(struct_loss)
assert num.allclose(struct_loss, [10.0, 150.0, 66.55333347876866, 0.0])
depth = csv_handle.get_column(EventDamageModel.MAX_DEPTH_TITLE)
# print "depth",depth
depth = [float(x) for x in depth]
assert num.allclose(depth, [3.000000011920929, 2.9166666785875957, 2.2666666785875957, -0.3])
# Test another file
csv_handle = Exposure(csv_fileII[:-4] + marker + extension)
struct_loss = csv_handle.get_column(EventDamageModel.STRUCT_LOSS_TITLE)
# print "struct_loss",struct_loss
struct_loss = [float(x) for x in struct_loss]
# pprint(struct_loss)
assert num.allclose(struct_loss, [10.0, 150.0, 66.553333478768664, 0.0])
depth = csv_handle.get_column(EventDamageModel.MAX_DEPTH_TITLE)
# print "depth",depth
depth = [float(x) for x in depth]
assert num.allclose(depth, [3.000000011920929, 2.9166666785875957, 2.2666666785875957, -0.3])
os.remove(sww.filename)
os.remove(csv_file)
os.remove(csv_fileII)
def test_sww_extrema(self):
"""Test that extrema of quantities can be retrieved at every vertex
Extrema are updated at every *internal* timestep
"""
domain = self.domain
domain.set_name('extrema_test' + str(id(self)))
domain.format = 'sww'
domain.smooth = True
assert domain.quantities_to_be_monitored is None
assert domain.monitor_polygon is None
assert domain.monitor_time_interval is None
domain.set_quantities_to_be_monitored(['xmomentum',
'ymomentum',
'stage-elevation'])
assert domain.monitor_polygon is None
assert domain.monitor_time_interval is None
domain.set_quantities_to_be_monitored(['xmomentum',
'ymomentum',
'stage-elevation'],
polygon=domain.get_boundary_polygon(),
time_interval=[0,1])
assert len(domain.quantities_to_be_monitored) == 3
assert domain.quantities_to_be_monitored.has_key('stage-elevation')
assert domain.quantities_to_be_monitored.has_key('xmomentum')
assert domain.quantities_to_be_monitored.has_key('ymomentum')
#domain.protect_against_isolated_degenerate_timesteps = True
#domain.tight_slope_limiters = 1
domain.tight_slope_limiters = 0 # Backwards compatibility
domain.use_centroid_velocities = 0 # Backwards compatibility (7/5/8)
sww = SWW_file(domain)
for t in domain.evolve(yieldstep = 1, finaltime = 1):
pass
#print domain.timestepping_statistics()
domain.quantity_statistics(precision = '%.8f') # Silent
# Get NetCDF
fid = NetCDFFile(sww.filename, netcdf_mode_r) # Open existing file for append
# Get the variables
extrema = fid.variables['stage-elevation.extrema'][:]
assert num.allclose(extrema, [0.00, 0.30]) or \
num.allclose(extrema, [ 0., 0.3222025])
loc = fid.variables['stage-elevation.min_location'][:]
assert num.allclose(loc, [0.16666667, 0.33333333])
loc = fid.variables['stage-elevation.max_location'][:]
assert num.allclose(loc, [0.8333333, 0.16666667])
time = fid.variables['stage-elevation.max_time'][:]
assert num.allclose(time, 0.0) or \
num.allclose(time, 0.35077909)
extrema = fid.variables['xmomentum.extrema'][:]
# Padarn Note: Had to add an extra possibility here (the final one [-0.06062178 0.47518688])
# to pass this assertion. Cannot see what would be causing this.
assert num.allclose(extrema,[-0.06062178, 0.47873023]) or \
num.allclose(extrema, [-0.06062178, 0.47847986]) or \
num.allclose(extrema, [-0.06062178, 0.47848481]) or \
num.allclose(extrema, [-0.06062178, 0.47763887]) or \
num.allclose(extrema, [-0.06062178, 0.46691909])or \
num.allclose(extrema, [-0.06062178, 0.47503704]) or \
num.allclose(extrema, [-0.06062178, 0.47518688]) or \
num.allclose(extrema, [-0.06062178, 0.49014235])
extrema = fid.variables['ymomentum.extrema'][:]
assert num.allclose(extrema,[0.00, 0.0625786]) or \
num.allclose(extrema,[0.00, 0.06062178])
time_interval = fid.variables['extrema.time_interval'][:]
assert num.allclose(time_interval, [0,1])
polygon = fid.variables['extrema.polygon'][:]
assert num.allclose(polygon, domain.get_boundary_polygon())
fid.close()
#print "sww.filename", sww.filename
os.remove(sww.filename)
class Test_Gauge(unittest.TestCase):
def setUp(self):
def elevation_function(x, y):
return -x
""" Setup for all tests. """
mesh_file = tempfile.mktemp(".tsh")
points = [[0.0,0.0],[6.0,0.0],[6.0,6.0],[0.0,6.0]]
m = Mesh()
m.add_vertices(points)
m.auto_segment()
m.generate_mesh(verbose=False)
m.export_mesh_file(mesh_file)
# Create shallow water domain
domain = anuga.Domain(mesh_file)
os.remove(mesh_file)
domain.default_order = 2
# This test was made before tight_slope_limiters were introduced
# Since were are testing interpolation values this is OK
domain.tight_slope_limiters = 0
# Set some field values
domain.set_quantity('elevation', elevation_function)
domain.set_quantity('friction', 0.03)
domain.set_quantity('xmomentum', 3.0)
domain.set_quantity('ymomentum', 4.0)
######################
# Boundary conditions
B = anuga.Transmissive_boundary(domain)
domain.set_boundary( {'exterior': B})
# This call mangles the stage values.
domain.distribute_to_vertices_and_edges()
domain.set_quantity('stage', 1.0)
domain.set_name('datatest' + str(time.time()))
domain.smooth = True
domain.reduction = mean
self.domain = domain
def tearDown(self):
"""Called at end of each test."""
if self.sww:
os.remove(self.sww.filename)
def _create_sww(self,stage=10.0, timestep=2.0):
self.sww = SWW_file(self.domain)
self.sww.store_connectivity()
self.sww.store_timestep()
self.domain.set_quantity('stage', stage) # This is automatically limited
# so it will not be less than the elevation
self.domain.set_time(self.domain.get_time()+timestep)
self.sww.store_timestep()
def test_sww2csv_0(self):
"""Most of this test was copied from test_interpolate
test_interpole_sww2csv
This is testing the sww2csv_gauges function, by creating a sww file and
then exporting the gauges and checking the results.
"""
domain = self.domain
self._create_sww()
# test the function
points = [[5.0,1.],[0.5,2.]]
points_file = tempfile.mktemp(".csv")
# points_file = 'test_point.csv'
file_id = open(points_file,"w")
file_id.write("name, easting, northing, elevation \n\
point1, 5.0, 1.0, 3.0\n\
point2, 0.5, 2.0, 9.0\n")
file_id.close()
sww2csv_gauges(self.sww.filename,
points_file,
verbose=False,
use_cache=False)
# point1_answers_array = [[0.0,1.0,-5.0,3.0,4.0], [2.0,10.0,-5.0,3.0,4.0]]
# point1_answers_array = [[0.0,0.0,1.0,6.0,-5.0,3.0,4.0], [2.0,2.0/3600.,10.0,15.0,-5.0,3.0,4.0]]
point1_answers_array = [[0.0, 0.0, 1.0, 4.0, -3.0, 3.0, 4.0], [2.0, 0.0005555555555555556, 10.0, 13.0, -3.0, 3.0, 4.0]]
point1_filename = 'gauge_point1.csv'
point1_handle = open(point1_filename)
point1_reader = reader(point1_handle)
point1_reader.next()
line=[]
for i,row in enumerate(point1_reader):
#print 'i',i,'row',row
line.append([float(row[0]),float(row[1]),float(row[2]),float(row[3]),
float(row[4]),float(row[5]),float(row[6])])
#print 'assert line',line[i],'point1',point1_answers_array[i]
assert num.allclose(line[i], point1_answers_array[i])
#point2_answers_array = [[0.0,0.0,1.0,1.5,-0.5,3.0,4.0], [2.0,2.0/3600.,10.0,10.5,-0.5,3.0,4.0]]
point2_answers_array = [[0.0, 0.0, 1.0, 3.416666666666667, -2.416666666666667, 3.0, 4.0], [2.0, 0.0005555555555555556, 10.000000000000002, 12.416666666666668, -2.416666666666667, 3.0, 4.0] ]
point2_filename = 'gauge_point2.csv'
point2_handle = open(point2_filename)
point2_reader = reader(point2_handle)
point2_reader.next()
line=[]
for i,row in enumerate(point2_reader):
# print 'i',i,'row',row
line.append([float(row[0]),float(row[1]),float(row[2]),float(row[3]),
float(row[4]),float(row[5]),float(row[6])])
# print 'assert line',line[i],'point1',point1_answers_array[i]
assert num.allclose(line[i], point2_answers_array[i])
# clean up
point1_handle.close()
point2_handle.close()
#os.remove(points_file)
#os.remove(point1_filename)
#os.remove(point2_filename)
def test_sww2csv_gauges1(self):
from anuga.pmesh.mesh import Mesh
from csv import reader,writer
import time
import string
"""Most of this test was copied from test_interpolate
test_interpole_sww2csv
This is testing the sww2csv_gauges function, by creating a sww file and
then exporting the gauges and checking the results.
This tests the ablity not to have elevation in the points file and
not store xmomentum and ymomentum
"""
domain = self.domain
self._create_sww()
# test the function
points = [[5.0,1.],[0.5,2.]]
points_file = tempfile.mktemp(".csv")
# points_file = 'test_point.csv'
file_id = open(points_file,"w")
file_id.write("name,easting,northing \n\
point1, 5.0, 1.0\n\
point2, 0.5, 2.0\n")
file_id.close()
sww2csv_gauges(self.sww.filename,
points_file,
quantities=['stage', 'elevation'],
use_cache=False,
verbose=False)
point1_answers_array = [[0.0, 1.0, -3.0], [2.0, 10.0, -3.0]]
point1_filename = 'gauge_point1.csv'
point1_handle = file(point1_filename)
point1_reader = reader(point1_handle)
point1_reader.next()
line=[]
for i,row in enumerate(point1_reader):
# print 'i',i,'row',row
# note the 'hole' (element 1) below - skip the new 'hours' field
line.append([float(row[0]),float(row[2]),float(row[3])])
#print 'line',line[i],'point1',point1_answers_array[i]
assert num.allclose(line[i], point1_answers_array[i])
point2_answers_array = [ [0.0, 1.0, -2.416666666666667], [2.0, 10.000000000000002, -2.416666666666667] ]
point2_filename = 'gauge_point2.csv'
point2_handle = file(point2_filename)
point2_reader = reader(point2_handle)
point2_reader.next()
line=[]
for i,row in enumerate(point2_reader):
# print 'i',i,'row',row
# note the 'hole' (element 1) below - skip the new 'hours' field
line.append([float(row[0]),float(row[2]),float(row[3])])
# print 'line',line[i],'point1',point1_answers_array[i]
assert num.allclose(line[i], point2_answers_array[i])
# clean up
point1_handle.close()
point2_handle.close()
os.remove(points_file)
os.remove(point1_filename)
os.remove(point2_filename)
def test_sww2csv_gauges2(self):
"""Most of this test was copied from test_interpolate
test_interpole_sww2csv
This is testing the sww2csv_gauges function, by creating a sww file and
then exporting the gauges and checking the results.
This is the same as sww2csv_gauges except set domain.set_starttime to 5.
Therefore testing the storing of the absolute time in the csv files
"""
domain = self.domain
domain.set_starttime(1)
self._create_sww(timestep=2)
# test the function
points = [[5.0,1.],[0.5,2.]]
points_file = tempfile.mktemp(".csv")
# points_file = 'test_point.csv'
file_id = open(points_file,"w")
file_id.write("name, easting, northing, elevation \n\
point1, 5.0, 1.0, 3.0\n\
point2, 0.5, 2.0, 9.0\n")
file_id.close()
sww2csv_gauges(self.sww.filename,
points_file,
verbose=False,
use_cache=False)
# point1_answers_array = [[0.0,1.0,-5.0,3.0,4.0], [2.0,10.0,-5.0,3.0,4.0]]
point1_answers_array = [[1.0, 0.0002777777777777778, 1.0, 4.0, -3.0, 3.0, 4.0], [3.0, 0.0008333333333333334, 10.0, 13.0, -3.0, 3.0, 4.0] ]
point1_filename = 'gauge_point1.csv'
point1_handle = file(point1_filename)
point1_reader = reader(point1_handle)
point1_reader.next()
line=[]
for i,row in enumerate(point1_reader):
#print 'i',i,'row',row
line.append([float(row[0]),float(row[1]),float(row[2]),float(row[3]),
float(row[4]), float(row[5]), float(row[6])])
#print 'assert line',line[i],'answer',point1_answers_array[i]
assert num.allclose(line[i], point1_answers_array[i])
point2_answers_array = [[1.0, 0.0002777777777777778, 1.0, 3.416666666666667, -2.416666666666667, 3.0, 4.0], [3.0, 0.0008333333333333334, 10.000000000000002, 12.416666666666668, -2.416666666666667, 3.0, 4.0]]
point2_filename = 'gauge_point2.csv'
point2_handle = file(point2_filename)
point2_reader = reader(point2_handle)
point2_reader.next()
line=[]
for i,row in enumerate(point2_reader):
#print 'i',i,'row',row
line.append([float(row[0]),float(row[1]),float(row[2]),float(row[3]),
float(row[4]),float(row[5]), float(row[6])])
#print 'assert line',line[i],'point1',point1_answers_array[i]
assert num.allclose(line[i], point2_answers_array[i])
# clean up
point1_handle.close()
point2_handle.close()
os.remove(points_file)
os.remove(point1_filename)
os.remove(point2_filename)
def test_sww2csv_gauge_point_off_mesh(self):
from anuga.pmesh.mesh import Mesh
from csv import reader,writer
import time
import string
"""Most of this test was copied from test_interpolate
test_interpole_sww2csv
This is testing the sww2csv_gauges function with one gauge off the mesh, by creating a sww file and
then exporting the gauges and checking the results.
This tests the correct values for when a gauge is off the mesh, which is important for parallel.
"""
domain = self.domain
sww = self._create_sww()
# test the function
points = [[50.0,1.],[50.5,-20.25]]
# points_file = tempfile.mktemp(".csv")
points_file = 'test_point.csv'
file_id = open(points_file,"w")
file_id.write("name,easting,northing \n\
offmesh1, 50.0, 1.0\n\
offmesh2, 50.5, 20.25\n")
file_id.close()
points_files = ['offmesh1.csv', 'offmesh2.csv']
for point_filename in points_files:
if os.path.exists(point_filename): os.remove(point_filename)
sww2csv_gauges(self.sww.filename,
points_file,
quantities=['stage', 'elevation', 'bearing'],
use_cache=False,
verbose=False)
for point_filename in points_files:
assert not os.path.exists(point_filename)
os.remove(points_file)
def test_sww2csv_centroid(self):
"""Check sww2csv timeseries at centroid.
Test the ability to get a timeseries at the centroid of a triangle, rather
than the given gauge point.
"""
domain = self.domain
sww = self._create_sww()
# create a csv file containing our gauge points
points_file = tempfile.mktemp(".csv")
file_id = open(points_file,"w")
# These values are where the centroids should be
# file_id.write("name, easting, northing, elevation \n\
#point1, 2.0, 2.0, 3.0\n\
#point2, 4.0, 4.0, 9.0\n")
# These values are slightly off the centroids - will it find the centroids?
file_id.write("name, easting, northing, elevation \n\
point1, 2.0, 1.0, 3.0\n\
point2, 4.5, 4.0, 9.0\n")
file_id.close()
sww2csv_gauges(self.sww.filename,
points_file,
verbose=False,
use_cache=False,
output_centroids=True)
#point1_answers_array = [[0.0,0.0,1.0,3.0,-2.0,3.0,4.0], [2.0,2.0/3600.,10.0,12.0,-2.0,3.0,4.0]]
point1_answers_array = [[0.0, 0.0, 1.0, 3.6666666666666665, -2.6666666666666665, 3.0, 4.0], [2.0, 0.0005555555555555556, 10.0, 12.666666666666666, -2.6666666666666665, 3.0, 4.0]]
point1_filename = 'gauge_point1.csv'
point1_handle = open(point1_filename)
point1_reader = reader(point1_handle)
point1_reader.next()
line=[]
for i,row in enumerate(point1_reader):
line.append([float(row[0]),float(row[1]),float(row[2]),float(row[3]),
float(row[4]),float(row[5]),float(row[6])])
#print 'assert line',line[i],'point1',point1_answers_array[i]
assert num.allclose(line[i], point1_answers_array[i])
#point2_answers_array = [[0.0,0.0,1.0,5.0,-4.0,3.0,4.0], [2.0,2.0/3600.,10.0,14.0,-4.0,3.0,4.0]]
point2_answers_array = [ [0.0, 0.0, 1.0, 4.333333333333333, -3.333333333333333, 3.0, 4.0], [2.0, 0.0005555555555555556, 10.0, 13.333333333333332, -3.333333333333333, 3.0, 4.0] ]
point2_filename = 'gauge_point2.csv'
point2_handle = open(point2_filename)
point2_reader = reader(point2_handle)
point2_reader.next()
line=[]
for i,row in enumerate(point2_reader):
line.append([float(row[0]),float(row[1]),float(row[2]),float(row[3]),
float(row[4]),float(row[5]),float(row[6])])
#print i, 'assert line',line[i],'point2',point2_answers_array[i]
assert num.allclose(line[i], point2_answers_array[i])
# clean up
point1_handle.close()
point2_handle.close()
os.remove(points_file)
os.remove(point1_filename)
os.remove(point2_filename)
def test_sww2csv_output_centroid_attribute(self):
"""Check sww2csv timeseries at centroid, then output the centroid coordinates.
Test the ability to get a timeseries at the centroid of a triangle, rather
than the given gauge point, then output the results.
"""
domain = self.domain
self._create_sww()
# create a csv file containing our gauge points
points_file = tempfile.mktemp(".csv")
file_id = open(points_file,"w")
# These values are slightly off the centroids - will it find the centroids?
file_id.write("name, easting, northing, elevation \n\
point1, 2.5, 4.25, 3.0\n")
file_id.close()
sww2csv_gauges(self.sww.filename,
points_file,
quantities=['stage', 'xcentroid', 'ycentroid'],
verbose=False,
use_cache=False,
output_centroids=True)
point1_answers_array = [[0.0,0.0,1.0,4.0,4.0], [2.0,2.0/3600.,10.0,4.0,4.0]]
point1_filename = 'gauge_point1.csv'
point1_handle = file(point1_filename)
point1_reader = reader(point1_handle)
point1_reader.next()
line=[]
for i,row in enumerate(point1_reader):
line.append([float(row[0]),float(row[1]),float(row[2]),float(row[3]),float(row[4])])
# print 'assert line',line[i],'point1',point1_answers_array[i]
assert num.allclose(line[i], point1_answers_array[i])
# clean up
point1_handle.close()
os.remove(points_file)
os.remove(point1_filename)
def test_sww2csv_multiple_files(self):
"""
This is testing the sww2csv_gauges function, by creating multiple
sww files and then exporting the gauges and checking the results.
"""
timestep=2.0
domain = self.domain
domain.set_starttime(0.)
# Create two sww files with timestep at end. These are to be
# stored consecutively in the gauge csv files
basename='datatest1'
domain.set_name(basename)
self._create_sww(stage=10.,timestep=timestep)
domain.set_name(basename+str(time.time()))
domain.set_time(domain.get_time()+timestep)
self._create_sww(stage=20.,timestep=timestep)
points_file = tempfile.mktemp(".csv")
file_id = open(points_file,"w")
# test the function at these points
points = [[5.0,1.],[0.5,2.]]
# create a csv file containing our gauge points
points_file = tempfile.mktemp(".csv")
file_id = open(points_file,"w")
file_id.write("name,easting,northing \n\
point1, 5.0, 1.0\n\
point2, 0.5, 2.0\n")
file_id.close()
sww2csv_gauges(basename+".sww",
points_file,
quantities=['stage', 'elevation'],
use_cache=False,
verbose=False)
point1_answers_array = [[0.0,1.0,-5.0], [2.0,10.0,-5.0],[4.0,10.0,-5.0],
[6.0,20.0,-5.0], [0.0,1.0,-5.0]]
point1_answers_array = [[0.0, 1.0, -3.0], [2.0, 10.0, -3.0],
[4.0, 10.0, -3.0], [6.0, 20.0, -3.0]]
point1_filename = 'gauge_point1.csv'
point1_handle = file(point1_filename)
point1_reader = reader(point1_handle)
point1_reader.next()
line=[]
for i,row in enumerate(point1_reader):
# note the 'hole' (element 1) below - skip the new 'hours' field
line.append([float(row[0]),float(row[2]),float(row[3])])
#print 'i', i
#print 'row',row
#print 'line',line[i],'point1',point1_answers_array[i]
assert num.allclose(line[i], point1_answers_array[i])
#point2_answers_array = [[0.0,1.0,-0.5], [2.0,10.0,-0.5],[4.0,10.0,-0.5],
# [6.0,20.0,-0.5], [0.0,1.0,-0.5]]
point2_answers_array = [[0.0, 1.0, -2.416666666666667],
[2.0, 10.000000000000002, -2.416666666666667],
[4.0, 10.000000000000002, -2.416666666666667],
[6.0, 20.000000000000004, -2.416666666666667]]
point2_filename = 'gauge_point2.csv'
point2_handle = file(point2_filename)
point2_reader = reader(point2_handle)
point2_reader.next()
line=[]
for i,row in enumerate(point2_reader):
# note the 'hole' (element 1) below - skip the new 'hours' field
line.append([float(row[0]),float(row[2]),float(row[3])])
#print 'line',line[i],'point2'#,point2_answers_array[i]
assert num.allclose(line[i], point2_answers_array[i])
# clean up
point1_handle.close()
point2_handle.close()
#os.remove(points_file)
#os.remove(point1_filename)
#os.remove(point2_filename)
#remove second swwfile not removed by tearDown
os.remove(basename+".sww")
def setUp(self):
#print "****set up****"
# Create an sww file
# Set up an sww that has a geo ref.
# have it cover an area in Australia. 'gong maybe
#Don't have many triangles though!
#Site Name: GDA-MGA: (UTM with GRS80 ellipsoid)
#Zone: 56
#Easting: 222908.705 Northing: 6233785.284
#Latitude: -34 0 ' 0.00000 '' Longitude: 150 0 ' 0.00000 ''
#Grid Convergence: -1 40 ' 43.13 '' Point Scale: 1.00054660
#geo-ref
#Zone: 56
#Easting: 220000 Northing: 6230000
#have a big area covered.
mesh_file = tempfile.mktemp(".tsh")
points_lat_long = [[-33,152],[-35,152],[-35,150],[-33,150]]
spat = Geospatial_data(data_points=points_lat_long,
points_are_lats_longs=True)
points_ab = spat.get_data_points( absolute = True)
geo = Geo_reference(56,400000,6000000)
spat.set_geo_reference(geo)
m = Mesh()
m.add_vertices(spat)
m.auto_segment()
m.generate_mesh(verbose=False)
m.export_mesh_file(mesh_file)
#Create shallow water domain
domain = Domain(mesh_file)
os.remove(mesh_file)
domain.default_order=2
#Set some field values
#domain.set_quantity('stage', 1.0)
domain.set_quantity('elevation', -0.5)
domain.set_quantity('friction', 0.03)
######################
# Boundary conditions
B = Transmissive_boundary(domain)
domain.set_boundary( {'exterior': B})
######################
#Initial condition - with jumps
bed = domain.quantities['elevation'].vertex_values
stage = num.zeros(bed.shape, num.float)
h = 0.3
for i in range(stage.shape[0]):
if i % 2 == 0:
stage[i,:] = bed[i,:] + h
else:
stage[i,:] = bed[i,:]
domain.set_quantity('stage', stage)
domain.set_quantity('xmomentum', stage*22.0)
domain.set_quantity('ymomentum', stage*55.0)
domain.distribute_to_vertices_and_edges()
self.domain = domain
C = domain.get_vertex_coordinates()
self.X = C[:,0:6:2].copy()
self.Y = C[:,1:6:2].copy()
self.F = bed
#sww_file = tempfile.mktemp("")
self.domain.set_name('tid_P0')
self.domain.format = 'sww'
self.domain.smooth = True
self.domain.reduction = mean
sww = SWW_file(self.domain)
sww.store_connectivity()
sww.store_timestep()
self.domain.time = 2.
sww.store_timestep()
self.sww = sww # so it can be deleted
#Create another sww file
mesh_file = tempfile.mktemp(".tsh")
points_lat_long = [[-35,152],[-36,152],[-36,150],[-35,150]]
spat = Geospatial_data(data_points=points_lat_long,
points_are_lats_longs=True)
points_ab = spat.get_data_points( absolute = True)
geo = Geo_reference(56,400000,6000000)
spat.set_geo_reference(geo)
m = Mesh()
m.add_vertices(spat)
m.auto_segment()
m.generate_mesh(verbose=False)
m.export_mesh_file(mesh_file)
#Create shallow water domain
domain = Domain(mesh_file)
os.remove(mesh_file)
domain.default_order=2
#Set some field values
#domain.set_quantity('stage', 1.0)
domain.set_quantity('elevation', -40)
domain.set_quantity('friction', 0.03)
######################
# Boundary conditions
B = Transmissive_boundary(domain)
domain.set_boundary( {'exterior': B})
######################
#Initial condition - with jumps
bed = domain.quantities['elevation'].vertex_values
stage = num.zeros(bed.shape, num.float)
h = 30.
for i in range(stage.shape[0]):
if i % 2 == 0:
stage[i,:] = bed[i,:] + h
else:
stage[i,:] = bed[i,:]
domain.set_quantity('stage', stage)
domain.set_quantity('xmomentum', stage*22.0)
domain.set_quantity('ymomentum', stage*55.0)
domain.distribute_to_vertices_and_edges()
self.domain2 = domain
C = domain.get_vertex_coordinates()
self.X2 = C[:,0:6:2].copy()
self.Y2 = C[:,1:6:2].copy()
self.F2 = bed
#sww_file = tempfile.mktemp("")
domain.set_name('tid_P1')
domain.format = 'sww'
domain.smooth = True
domain.reduction = mean
sww = SWW_file(domain)
sww.store_connectivity()
sww.store_timestep()
domain.time = 2.
sww.store_timestep()
self.swwII = sww # so it can be deleted
# print "sww.filename", sww.filename
#Create a csv file
self.csv_file = tempfile.mktemp(".csv")
fd = open(self.csv_file,'wb')
writer = csv.writer(fd)
writer.writerow(['LONGITUDE','LATITUDE',STR_VALUE_LABEL,CONT_VALUE_LABEL,'ROOF_TYPE',WALL_TYPE_LABEL, SHORE_DIST_LABEL])
writer.writerow(['151.5','-34','199770','130000','Metal','Timber',20.])
writer.writerow(['151','-34.5','150000','76000','Metal','Double Brick',200.])
writer.writerow(['151','-34.25','150000','76000','Metal','Brick Veneer',200.])
fd.close()
#Create a csv file
self.csv_fileII = tempfile.mktemp(".csv")
fd = open(self.csv_fileII,'wb')
writer = csv.writer(fd)
writer.writerow(['LONGITUDE','LATITUDE',STR_VALUE_LABEL,CONT_VALUE_LABEL,'ROOF_TYPE',WALL_TYPE_LABEL, SHORE_DIST_LABEL])
writer.writerow(['151.5','-34','199770','130000','Metal','Timber',20.])
writer.writerow(['151','-34.5','150000','76000','Metal','Double Brick',200.])
writer.writerow(['151','-34.25','150000','76000','Metal','Brick Veneer',200.])
fd.close()
def test_inundation_damage_list(self):
# create mesh
mesh_file = tempfile.mktemp(".tsh")
points = [[0.0,0.0],[6.0,0.0],[6.0,6.0],[0.0,6.0]]
m = Mesh()
m.add_vertices(points)
m.auto_segment()
m.generate_mesh(verbose=False)
m.export_mesh_file(mesh_file)
#Create shallow water domain
domain = Domain(mesh_file)
os.remove(mesh_file)
domain.default_order=2
#Set some field values
domain.set_quantity('elevation', elevation_function)
domain.set_quantity('friction', 0.03)
domain.set_quantity('xmomentum', 22.0)
domain.set_quantity('ymomentum', 55.0)
######################
# Boundary conditions
B = Transmissive_boundary(domain)
domain.set_boundary( {'exterior': B})
# This call mangles the stage values.
domain.distribute_to_vertices_and_edges()
domain.set_quantity('stage', 0.3)
#sww_file = tempfile.mktemp("")
domain.set_name('datatest' + str(time.time()))
domain.format = 'sww'
domain.smooth = True
domain.reduction = mean
sww = SWW_file(domain)
sww.store_connectivity()
sww.store_timestep()
domain.set_quantity('stage', -0.3)
domain.time = 2.
sww.store_timestep()
#Create a csv file
csv_file = tempfile.mktemp(".csv")
fd = open(csv_file,'wb')
writer = csv.writer(fd)
writer.writerow(['x','y',STR_VALUE_LABEL,CONT_VALUE_LABEL,'ROOF_TYPE',WALL_TYPE_LABEL, SHORE_DIST_LABEL])
writer.writerow([5.5,0.5,'10','130000','Metal','Timber',20])
writer.writerow([4.5,1.0,'150','76000','Metal','Double Brick',20])
writer.writerow([0.1,1.5,'100','76000','Metal','Brick Veneer',300])
writer.writerow([6.1,1.5,'100','76000','Metal','Brick Veneer',300])
fd.close()
extension = ".csv"
csv_fileII = tempfile.mktemp(extension)
fd = open(csv_fileII,'wb')
writer = csv.writer(fd)
writer.writerow(['x','y',STR_VALUE_LABEL,CONT_VALUE_LABEL,'ROOF_TYPE',WALL_TYPE_LABEL, SHORE_DIST_LABEL])
writer.writerow([5.5,0.5,'10','130000','Metal','Timber',20])
writer.writerow([4.5,1.0,'150','76000','Metal','Double Brick',20])
writer.writerow([0.1,1.5,'100','76000','Metal','Brick Veneer',300])
writer.writerow([6.1,1.5,'100','76000','Metal','Brick Veneer',300])
fd.close()
sww_file = domain.get_name() + "." + domain.format
#print "sww_file",sww_file
marker='_gosh'
inundation_damage(sww_file, [csv_file, csv_fileII],
exposure_file_out_marker=marker,
verbose=False)
# Test one file
csv_handle = Exposure(csv_file[:-4]+marker+extension)
struct_loss = csv_handle.get_column(EventDamageModel.STRUCT_LOSS_TITLE)
#print "struct_loss",struct_loss
struct_loss = [float(x) for x in struct_loss]
#pprint(struct_loss)
assert num.allclose(struct_loss,[10.0, 150.0, 66.55333347876866, 0.0])
depth = csv_handle.get_column(EventDamageModel.MAX_DEPTH_TITLE)
#print "depth",depth
depth = [float(x) for x in depth]
assert num.allclose(depth, [3.000000011920929, 2.9166666785875957, 2.2666666785875957, -0.3])
# Test another file
csv_handle = Exposure(csv_fileII[:-4]+marker+extension)
struct_loss = csv_handle.get_column(EventDamageModel.STRUCT_LOSS_TITLE)
#print "struct_loss",struct_loss
struct_loss = [float(x) for x in struct_loss]
#pprint(struct_loss)
assert num.allclose(struct_loss, [10.0, 150.0, 66.553333478768664, 0.0])
depth = csv_handle.get_column(EventDamageModel.MAX_DEPTH_TITLE)
#print "depth",depth
depth = [float(x) for x in depth]
assert num.allclose(depth,[3.000000011920929, 2.9166666785875957, 2.2666666785875957, -0.3])
os.remove(sww.filename)
os.remove(csv_file)
os.remove(csv_fileII)
