def get_timeseries(sww_filename,gauges):
"""Generate time series for sww file based on gauges
"""
gauge_locations = gauges.values()
gauge_names = gauges.keys()
#tempfile = 'xyz1234tempfile.sww' # Has to end with sww
#os.system('cp %s %s' % (sww_filename, tempfile))
f = file_function(sww_filename,
quantities='stage',
interpolation_points=gauge_locations,
use_cache=True,
verbose=True)
timevector = f.get_time()
timeseries = {}
for k, name in enumerate(gauge_names):
model = timeseries[name] = []
for t in timevector:
model.append(f(t, point_id=k)[0])
return num.array(timevector), timeseries
def create_a_rain_operator(domain, base_filename):
polygon = read_polygon(join(rain_polygon_dir, base_filename+'.csv'))
rate = file_function(join(rain_rate_dir, base_filename+'.tms'), quantities=['rate'])
return Rate_operator(domain, rate=rate, factor=1.0e-3, \
polygon = polygon)
def setup_boundaries(simulation):
"""
Setup boundary conditions
"""
domain = simulation.domain
Bd = anuga.Dirichlet_boundary([0, 0, 0])
#Bw = anuga.Time_boundary(domain=domain, function=wrapped_file_function)
func = anuga.file_function(join('Forcing', 'Tide', 'Pioneer.tms'),
quantities='rainfall')
Bw = anuga.Time_boundary(domain=domain,
function=lambda t: [func(t), 0.0, 0.0])
domain.set_boundary({'west': Bd, 'south': Bd, 'north': Bd, 'east': Bw})
def wrapped_file_function(t):
func = anuga.file_function(join('Forcing', 'Tide', 'Pioneer.tms'),
quantities='rainfall')
return [func(t), 0.0, 0.0]
def test_rate_operator_rate_from_file(self):
from anuga.config import rho_a, rho_w, eta_w
from math import pi, cos, sin
a = [0.0, 0.0]
b = [0.0, 2.0]
c = [2.0, 0.0]
d = [0.0, 4.0]
e = [2.0, 2.0]
f = [4.0, 0.0]
points = [a, b, c, d, e, f]
# bac, bce, ecf, dbe
vertices = [[1, 0, 2], [1, 2, 4], [4, 2, 5], [3, 1, 4]]
#---------------------------------
#Typical ASCII file
#---------------------------------
finaltime = 1200
filename = 'test_file_function'
fid = open(filename + '.txt', 'w')
start = time.mktime(time.strptime('2000', '%Y'))
dt = 60 #One minute intervals
t = 0.0
while t <= finaltime:
t_string = time.strftime(time_format, time.gmtime(t + start))
fid.write('%s, %f %f %f\n' %
(t_string, 2 * t, t**2, sin(t * pi / 600)))
t += dt
fid.close()
#Convert ASCII file to NetCDF (Which is what we really like!)
timefile2netcdf(filename + '.txt')
#Create file function from time series
F = file_function(
filename + '.tms',
quantities=['Attribute0', 'Attribute1', 'Attribute2'])
#Now try interpolation
for i in range(20):
t = i * 10
q = F(t)
#Exact linear intpolation
assert num.allclose(q[0], 2 * t)
if i % 6 == 0:
assert num.allclose(q[1], t**2)
assert num.allclose(q[2], sin(t * pi / 600))
#Check non-exact
t = 90 #Halfway between 60 and 120
q = F(t)
assert num.allclose((120**2 + 60**2) / 2, q[1])
assert num.allclose((sin(120 * pi / 600) + sin(60 * pi / 600)) / 2,
q[2])
t = 100 #Two thirds of the way between between 60 and 120
q = F(t)
assert num.allclose(2 * 120**2 / 3 + 60**2 / 3, q[1])
assert num.allclose(
2 * sin(120 * pi / 600) / 3 + sin(60 * pi / 600) / 3, q[2])
#os.remove(filename + '.txt')
#os.remove(filename + '.tms')
domain = Domain(points, vertices)
#Flat surface with 1m of water
domain.set_quantity('elevation', 0)
domain.set_quantity('stage', 1.0)
domain.set_quantity('friction', 0)
Br = Reflective_boundary(domain)
domain.set_boundary({'exterior': Br})
# print domain.quantities['elevation'].centroid_values
# print domain.quantities['stage'].centroid_values
# print domain.quantities['xmomentum'].centroid_values
# print domain.quantities['ymomentum'].centroid_values
# Apply operator to these triangles
indices = [0, 1, 3]
rate = file_function('test_file_function.tms',
quantities=['Attribute1'])
factor = 1000.0
default_rate = 17.7
operator = Rate_operator(domain, rate=rate, factor=factor, \
indices=indices, default_rate = default_rate)
# Apply Operator
domain.set_starttime(360.0)
domain.timestep = 1.0
operator()
d = domain.get_time()**2 * factor + 1.0
stage_ex0 = [d, d, 1., d]
# print d, domain.get_time(), F(360.0)
# print domain.quantities['elevation'].centroid_values
# print domain.quantities['stage'].centroid_values
# print domain.quantities['xmomentum'].centroid_values
# print domain.quantities['ymomentum'].centroid_values
assert num.allclose(domain.quantities['stage'].centroid_values,
stage_ex0)
assert num.allclose(domain.quantities['xmomentum'].centroid_values,
0.0)
assert num.allclose(domain.quantities['ymomentum'].centroid_values,
0.0)
assert num.allclose(domain.fractional_step_volume_integral,
((d - 1.) * domain.areas[indices]).sum())
domain.set_starttime(-10.0)
domain.timestep = 1.0
try:
operator()
except:
pass
else:
raise Exception('Should have raised an exception, time too early')
domain.set_starttime(1300.0)
domain.timestep = 1.0
operator()
d = default_rate * factor + d
stage_ex1 = [d, d, 1., d]
# print domain.quantities['elevation'].centroid_values
# print domain.quantities['stage'].centroid_values
# print domain.quantities['xmomentum'].centroid_values
# print domain.quantities['ymomentum'].centroid_values
assert num.allclose(domain.quantities['stage'].centroid_values,
stage_ex1)
assert num.allclose(domain.quantities['xmomentum'].centroid_values,
0.0)
assert num.allclose(domain.quantities['ymomentum'].centroid_values,
0.0)
assert num.allclose(domain.fractional_step_volume_integral,
((d - 1.) * domain.areas[indices]).sum())
domain.set_name(output_filename) # Name of output sww file
domain.set_minimum_storable_height(0.001) # Don't store w < 0.01m
domain.set_store_vertices_smoothly(True)
domain.set_flow_algorithm(alg)
else:
domain = None
domain = distribute(domain)
#-------------------------
# Boundary Conditions
#-------------------------
# Create boundary function from timeseries provided in file
wave_function = anuga.file_function(boundary_filename, domain, verbose=verbose)
# Create and assign boundary objects
Bts = anuga.Transmissive_n_momentum_zero_t_momentum_set_stage_boundary(
domain, wave_function)
Br = anuga.Reflective_boundary(domain)
domain.set_boundary({'wave': Bts, 'wall': Br})
#-------------------------------------------------------------------------
# Produce a documentation of parameters
#-------------------------------------------------------------------------
from anuga.validation_utilities import save_parameters_tex
save_parameters_tex(domain)
#-------------------------
def test_rate_operator_rate_from_file(self):
from anuga.config import rho_a, rho_w, eta_w
from math import pi, cos, sin
a = [0.0, 0.0]
b = [0.0, 2.0]
c = [2.0, 0.0]
d = [0.0, 4.0]
e = [2.0, 2.0]
f = [4.0, 0.0]
points = [a, b, c, d, e, f]
# bac, bce, ecf, dbe
vertices = [[1, 0, 2], [1, 2, 4], [4, 2, 5], [3, 1, 4]]
#---------------------------------
#Typical ASCII file
#---------------------------------
finaltime = 1200
filename = 'test_file_function'
fid = open(filename + '.txt', 'w')
start = time.mktime(time.strptime('2000', '%Y'))
dt = 60 #One minute intervals
t = 0.0
while t <= finaltime:
t_string = time.strftime(time_format, time.gmtime(t + start))
fid.write('%s, %f %f %f\n' %
(t_string, 2 * t, t**2, sin(old_div(t * pi, 600))))
t += dt
fid.close()
#Convert ASCII file to NetCDF (Which is what we really like!)
timefile2netcdf(filename + '.txt')
#Create file function from time series
F = file_function(
filename + '.tms',
quantities=['Attribute0', 'Attribute1', 'Attribute2'])
#Now try interpolation
for i in range(20):
t = i * 10
q = F(t)
#Exact linear intpolation
assert num.allclose(q[0], 2 * t)
if i % 6 == 0:
assert num.allclose(q[1], t**2)
assert num.allclose(q[2], sin(old_div(t * pi, 600)))
#Check non-exact
t = 90 #Halfway between 60 and 120
q = F(t)
assert num.allclose(old_div((120**2 + 60**2), 2), q[1])
assert num.allclose(
old_div((sin(old_div(120 * pi, 600)) + sin(old_div(60 * pi, 600))),
2), q[2])
t = 100 #Two thirds of the way between between 60 and 120
q = F(t)
assert num.allclose(old_div(2 * 120**2, 3) + old_div(60**2, 3), q[1])
assert num.allclose(
old_div(2 * sin(old_div(120 * pi, 600)), 3) +
old_div(sin(old_div(60 * pi, 600)), 3), q[2])
#os.remove(filename + '.txt')
#os.remove(filename + '.tms')
domain = Domain(points, vertices)
#Flat surface with 1m of water
domain.set_quantity('elevation', 0)
domain.set_quantity('stage', 1.0)
domain.set_quantity('friction', 0)
Br = Reflective_boundary(domain)
domain.set_boundary({'exterior': Br})
# print domain.quantities['elevation'].centroid_values
# print domain.quantities['stage'].centroid_values
# print domain.quantities['xmomentum'].centroid_values
# print domain.quantities['ymomentum'].centroid_values
# Apply operator to these triangles
indices = [0, 1, 3]
rate = file_function(filename + '.tms', quantities=['Attribute1'])
# Make starttime of domain consistent with tms file starttime
domain.set_starttime(rate.starttime)
factor = 1000.0
default_rate = 17.7
operator = Rate_operator(domain, rate=rate, factor=factor, \
indices=indices, default_rate = default_rate)
# Apply Operator
domain.set_time(360.0)
domain.timestep = 1.0
operator()
d = domain.get_time()**2 * factor + 1.0
stage_ex0 = [d, d, 1., d]
# print d, domain.get_time(), F(360.0)
# print domain.quantities['elevation'].centroid_values
# print domain.quantities['stage'].centroid_values
# print domain.quantities['xmomentum'].centroid_values
# print domain.quantities['ymomentum'].centroid_values
assert num.allclose(domain.quantities['stage'].centroid_values,
stage_ex0)
assert num.allclose(domain.quantities['xmomentum'].centroid_values,
0.0)
assert num.allclose(domain.quantities['ymomentum'].centroid_values,
0.0)
assert num.allclose(domain.fractional_step_volume_integral,
((d - 1.) * domain.areas[indices]).sum())
domain.set_time(1300.0)
domain.timestep = 1.0
operator()
d = default_rate * factor + d
stage_ex1 = [d, d, 1., d]
# print domain.quantities['elevation'].centroid_values
# print domain.quantities['stage'].centroid_values
# print domain.quantities['xmomentum'].centroid_values
# print domain.quantities['ymomentum'].centroid_values
assert num.allclose(domain.quantities['stage'].centroid_values,
stage_ex1)
assert num.allclose(domain.quantities['xmomentum'].centroid_values,
0.0)
assert num.allclose(domain.quantities['ymomentum'].centroid_values,
0.0)
assert num.allclose(domain.fractional_step_volume_integral,
((d - 1.) * domain.areas[indices]).sum())
tmp = numpy.zeros_like(domain.quantities['stage'].centroid_values)
tmp[:] = domain.quantities['stage'].centroid_values
d0 = domain.fractional_step_volume_integral
domain.set_time(-10.0)
domain.timestep = 1.0
operator()
d = default_rate * factor
stage_ex2 = numpy.array([d, d, 0., d]) + numpy.array(stage_ex1)
assert num.allclose(domain.quantities['stage'].centroid_values,
stage_ex2)
assert num.allclose(domain.quantities['xmomentum'].centroid_values,
0.0)
assert num.allclose(domain.quantities['ymomentum'].centroid_values,
0.0)
assert num.allclose(domain.fractional_step_volume_integral,
d0 + (d * domain.areas[indices]).sum())
# test timestepping_statistics
stats = operator.timestepping_statistics()
import re
rr = re.findall("[-+]?[.]?[\d]+(?:,\d\d\d)*[\.]?\d*(?:[eE][-+]?\d+)?",
stats)
assert num.allclose(float(rr[1]), 17.7)
assert num.allclose(float(rr[2]), 106200.0)
def test_rate_operator_rate_from_file(self):
from anuga.config import rho_a, rho_w, eta_w
from math import pi, cos, sin
a = [0.0, 0.0]
b = [0.0, 2.0]
c = [2.0, 0.0]
d = [0.0, 4.0]
e = [2.0, 2.0]
f = [4.0, 0.0]
points = [a, b, c, d, e, f]
# bac, bce, ecf, dbe
vertices = [[1,0,2], [1,2,4], [4,2,5], [3,1,4]]
#---------------------------------
#Typical ASCII file
#---------------------------------
finaltime = 1200
filename = 'test_file_function'
fid = open(filename + '.txt', 'w')
start = time.mktime(time.strptime('2000', '%Y'))
dt = 60 #One minute intervals
t = 0.0
while t <= finaltime:
t_string = time.strftime(time_format, time.gmtime(t+start))
fid.write('%s, %f %f %f\n' %(t_string, 2*t, t**2, sin(t*pi/600)))
t += dt
fid.close()
#Convert ASCII file to NetCDF (Which is what we really like!)
timefile2netcdf(filename+'.txt')
#Create file function from time series
F = file_function(filename + '.tms',
quantities = ['Attribute0',
'Attribute1',
'Attribute2'])
#Now try interpolation
for i in range(20):
t = i*10
q = F(t)
#Exact linear intpolation
assert num.allclose(q[0], 2*t)
if i%6 == 0:
assert num.allclose(q[1], t**2)
assert num.allclose(q[2], sin(t*pi/600))
#Check non-exact
t = 90 #Halfway between 60 and 120
q = F(t)
assert num.allclose( (120**2 + 60**2)/2, q[1] )
assert num.allclose( (sin(120*pi/600) + sin(60*pi/600))/2, q[2] )
t = 100 #Two thirds of the way between between 60 and 120
q = F(t)
assert num.allclose( 2*120**2/3 + 60**2/3, q[1] )
assert num.allclose( 2*sin(120*pi/600)/3 + sin(60*pi/600)/3, q[2] )
#os.remove(filename + '.txt')
#os.remove(filename + '.tms')
domain = Domain(points, vertices)
#Flat surface with 1m of water
domain.set_quantity('elevation', 0)
domain.set_quantity('stage', 1.0)
domain.set_quantity('friction', 0)
Br = Reflective_boundary(domain)
domain.set_boundary({'exterior': Br})
# print domain.quantities['elevation'].centroid_values
# print domain.quantities['stage'].centroid_values
# print domain.quantities['xmomentum'].centroid_values
# print domain.quantities['ymomentum'].centroid_values
# Apply operator to these triangles
indices = [0,1,3]
rate = file_function(filename + '.tms', quantities=['Attribute1'])
# Make starttime of domain consistent with tms file starttime
domain.set_starttime(rate.starttime)
factor = 1000.0
default_rate= 17.7
operator = Rate_operator(domain, rate=rate, factor=factor, \
indices=indices, default_rate = default_rate)
# Apply Operator
domain.set_time(360.0)
domain.timestep = 1.0
operator()
d = domain.get_time()**2 * factor + 1.0
stage_ex0 = [ d, d, 1., d]
# print d, domain.get_time(), F(360.0)
# print domain.quantities['elevation'].centroid_values
# print domain.quantities['stage'].centroid_values
# print domain.quantities['xmomentum'].centroid_values
# print domain.quantities['ymomentum'].centroid_values
assert num.allclose(domain.quantities['stage'].centroid_values, stage_ex0)
assert num.allclose(domain.quantities['xmomentum'].centroid_values, 0.0)
assert num.allclose(domain.quantities['ymomentum'].centroid_values, 0.0)
assert num.allclose(domain.fractional_step_volume_integral, ((d-1.)*domain.areas[indices]).sum())
domain.set_time(-10.0)
domain.timestep = 1.0
try:
operator()
except:
pass
else:
raise Exception('Should have raised an exception, time too early')
domain.set_time(1300.0)
domain.timestep = 1.0
operator()
d = default_rate*factor + d
stage_ex1 = [ d, d, 1., d]
# print domain.quantities['elevation'].centroid_values
# print domain.quantities['stage'].centroid_values
# print domain.quantities['xmomentum'].centroid_values
# print domain.quantities['ymomentum'].centroid_values
assert num.allclose(domain.quantities['stage'].centroid_values, stage_ex1)
assert num.allclose(domain.quantities['xmomentum'].centroid_values, 0.0)
assert num.allclose(domain.quantities['ymomentum'].centroid_values, 0.0)
assert num.allclose(domain.fractional_step_volume_integral, ((d-1.)*domain.areas[indices]).sum())
def wrapped_file_function(t):
func = anuga.file_function(join('Forcing','Tide','Pioneer.tms'), quantities='rainfall')
return [func(t), 0.0, 0.0]
quantity_names=None,
time_as_seconds=True)
TS_file = 'tmsfile_SD_CF.tms'
print 'TMS file ' + TS_file + ' created'
# --------
Bd = anuga.Dirichlet_boundary([tide, 0, 0]) # Mean water level
Bs = anuga.Transmissive_stage_zero_momentum_boundary(
domain) # Neutral boundary
if project.scenario == 'fixed_wave':
# Huge 17.135m wave starting after 60 seconds and lasting 60 minutes.
Bw = anuga.Transmissive_n_momentum_zero_t_momentum_set_stage_boundary(
domain=domain, function=lambda t: [(60 < t < 3660) * 17.135, 0, 0])
# Option 2: Set boundary stage from predefined TMS file output from EasyWave
wave_f = anuga.file_function(TS_file, domain, quantities='Attribute0')
Btms = anuga.Transmissive_momentum_set_stage_boundary(
domain=domain, function=lambda t: [wave_f(t), 0, 0])
# Bt used if transmissive boundary raise too small timestep exception
Bt = anuga.Time_boundary(domain=domain,
function=lambda t: [wave_f(t), 0, 0])
domain.set_boundary({
'onshore': Bd,
'west': Bs,
'bottom_ocean': Btms,
'east': Bs
})
if project.scenario == 'slide':
# Boundary conditions for slide scenario
parameter_file.write('\\end{verbatim}\n')
parameter_file.close()
else:
domain = None
domain = distribute(domain)
#-------------------------
# Boundary Conditions
#-------------------------
# Create boundary function from timeseries provided in file
function = anuga.file_function(project.boundary_filename,
domain,
verbose=verbose)
# Create and assign boundary objects
Bts = anuga.Transmissive_momentum_set_stage_boundary(domain, function)
Br = anuga.Reflective_boundary(domain)
domain.set_boundary({'wave': Bts, 'wall': Br})
#-------------------------
# Evolve through time
#-------------------------
import time
t0 = time.time()
for t in domain.evolve(yieldstep=0.05, finaltime=22.5):
if myid == 0 and verbose: domain.write_time()
#domain.set_quantities_to_be_monitored('stage')
domain.set_flow_algorithm(alg)
else:
domain = None
domain = distribute(domain)
#-------------------------
# Boundary Conditions
#-------------------------
# Create boundary function from timeseries provided in file
wave_function = anuga.file_function(project.boundary_filename,
domain, verbose=verbose)
# Create and assign boundary objects
Bts = anuga.Transmissive_n_momentum_zero_t_momentum_set_stage_boundary(domain, wave_function)
Br = anuga.Reflective_boundary(domain)
domain.set_boundary({'wave': Bts, 'wall': Br})
#-------------------------------------------------------------------------
# Produce a documentation of parameters
#-------------------------------------------------------------------------
from anuga.validation_utilities import save_parameters_tex
save_parameters_tex(domain)
#-------------------------
# Evolve through time
## Setup boundary conditions
##-----------------------------------------------------------------------
domain.set_quantity('elevation', topography)
domain.set_quantity('friction', 0.01) # Constant friction
domain.set_quantity('stage', expression='elevation') # Dry initial condition
Bi = anuga.Dirichlet_boundary([5.0, 0.0, 0.0])
Br = anuga.Reflective_boundary(domain) # Solid reflective wall
domain.set_boundary({'left': Br, 'right': Br, 'top': Br, 'bottom': Br})
################ Define Fractional Operators ##########################
line0 = [[10.0, 10.0], [30.0, 10.0]]
#line0 = [[29.0, 10.0], [30.0, 10.0]]
poly1 = [[0.0, 10.0], [0.0, 15.0], [5.0, 15.0], [5.0, 10.0]]
Q0 = anuga.file_function('data/test_hydrograph.tms', quantities=['hydrograph'])
Q1 = 5.0
samples = 50
inlet0 = None
inlet1 = None
boyd_box0 = None
inlet0 = Inlet_operator(domain,
line0,
Q0,
logging=True,
description='inlet0',
verbose=False)
inlet1 = Inlet_operator(domain,
domain.set_quantity('friction', 0.01) # Constant friction
domain.set_quantity('stage',
expression='elevation') # Dry initial condition
Bi = anuga.Dirichlet_boundary([5.0, 0.0, 0.0])
Br = anuga.Reflective_boundary(domain) # Solid reflective wall
domain.set_boundary({'left': Br, 'right': Br, 'top': Br, 'bottom': Br})
################ Define Fractional Operators ##########################
line0 = [[10.0, 10.0], [30.0, 10.0]]
#line0 = [[29.0, 10.0], [30.0, 10.0]]
poly1 = [[0.0, 10.0], [0.0, 15.0], [5.0, 15.0], [5.0, 10.0]]
Q0 = anuga.file_function('../data/test_hydrograph.tms', quantities=['hydrograph'])
Q1 = 5.0
samples = 50
inlet0 = None
inlet1 = None
boyd_box0 = None
inlet0 = Inlet_operator(domain, line0, Q0, logging=True, description='inlet0', verbose = False)
inlet1 = Inlet_operator(domain, poly1, Q1, logging=True, description='inlet1', verbose = False)
# Enquiry point [ 19. 2.5] is contained in two domains in 4 proc case
boyd_box0 = Boyd_box_operator(domain,
