def __init__(self, args):
"""Loads PyFR mesh and solution files
A check is made to ensure the solution was computed on the mesh.
:param args: Command line arguments passed from scripts/postp.py
:type args: class 'argparse.Namespace'
"""
self.args = args
self.outf = args.outf
# Load mesh and solution files
self.soln = read_pyfr_data(args.solnf)
self.mesh = read_pyfr_data(args.meshf)
# Get element types and array shapes
self.mesh_inf = self.mesh.array_info
self.soln_inf = self.soln.array_info
# Check solution and mesh are compatible
if self.mesh["mesh_uuid"] != self.soln["mesh_uuid"]:
raise RuntimeError('Solution "%s" was not computed on mesh "%s"' % (args.solnf, args.meshf))
# Load config file
self.cfg = Inifile(self.soln["config"])
def __init__(self, args):
"""Loads PyFR mesh and solution files
A check is made to ensure the solution was computed on the mesh.
:param args: Command line arguments passed from scripts/postp.py
:type args: class 'argparse.Namespace'
"""
self.args = args
self.outf = args.outf
# Load mesh and solution files
self.soln = read_pyfr_data(args.solnf)
self.mesh = read_pyfr_data(args.meshf)
# Get element types and array shapes
self.mesh_inf = self.mesh.array_info
self.soln_inf = self.soln.array_info
# Check solution and mesh are compatible
if self.mesh['mesh_uuid'] != self.soln['mesh_uuid']:
raise RuntimeError('Solution "%s" was not computed on mesh "%s"' %
(args.solnf, args.meshf))
# Load config file
self.cfg = Inifile(self.soln['config'])
def process_restart(args):
mesh = read_pyfr_data(args.mesh)
soln = read_pyfr_data(args.soln)
# Ensure the solution is from the mesh we are using
if soln['mesh_uuid'] != mesh['mesh_uuid']:
raise RuntimeError('Invalid solution for mesh.')
# Process the config file
if args.cfg:
cfg = Inifile.load(args.cfg)
else:
cfg = Inifile(soln['config'])
return mesh, soln, cfg
def process_restart(args):
mesh = read_pyfr_data(args.mesh)
soln = read_pyfr_data(args.soln)
# Ensure the solution is from the mesh we are using
if soln['mesh_uuid'] != mesh['mesh_uuid']:
raise RuntimeError('Invalid solution for mesh.')
# Process the config file
if args.cfg:
cfg = Inifile.load(args.cfg)
else:
cfg = Inifile(soln['config'])
return mesh, soln, cfg
def process_restart(args):
mesh = read_pyfr_data(args.mesh)
soln = read_pyfr_data(args.soln)
# Ensure the solution is from the mesh we are using
if soln["mesh_uuid"] != mesh["mesh_uuid"]:
raise RuntimeError("Invalid solution for mesh.")
# Process the config file
if args.cfg:
cfg = Inifile.load(args.cfg)
else:
cfg = Inifile(soln["config"])
_process_common(args, mesh, soln, cfg)
def process_tavg(args):
infs = {}
# Interrogate files passed by the shell
for fname in args.infs:
# Load solution files and obtain solution times
inf = read_pyfr_data(fname)
tinf = Inifile(inf['stats']).getfloat('solver-time-integrator',
'tcurr')
# Retain if solution time is within limits
if args.limits is None or args.limits[0] <= tinf <= args.limits[1]:
infs[tinf] = inf
# Verify that solutions were computed on the same mesh
if inf['mesh_uuid'] != infs[infs.keys()[0]]['mesh_uuid']:
raise RuntimeError('Solution files in scope were not computed '
'on the same mesh')
# Sort the solution times, check for sufficient files in scope
stimes = sorted(infs.keys())
if len(infs) <= 1:
raise RuntimeError('More than one solution file is required to '
'compute an average')
# Initialise progress bar, and the average with first solution
pb = ProgressBar(0, 0, len(stimes), 0)
avgs = {name: infs[stimes[0]][name].copy() for name in infs[stimes[0]]}
solnfs = [name for name in avgs.keys() if name.startswith('soln')]
# Weight the initialised trapezoidal mean
dtnext = stimes[1] - stimes[0]
for name in solnfs:
avgs[name] *= 0.5*dtnext
pb.advance_to(1)
# Compute the trapezoidal mean up to the last solution file
for i in xrange(len(stimes[2:])):
dtlast = dtnext
dtnext = stimes[i+2] - stimes[i+1]
# Weight the current solution, then add to the mean
for name in solnfs:
avgs[name] += 0.5*(dtlast + dtnext)*infs[stimes[i+1]][name]
pb.advance_to(i+2)
# Weight final solution, update mean and normalise for elapsed time
for name in solnfs:
avgs[name] += 0.5*dtnext*infs[stimes[-1]][name]
avgs[name] *= 1.0/(stimes[-1] - stimes[0])
pb.advance_to(i+3)
# Compute and assign stats for a time-averaged solution
stats = Inifile()
stats.set('time-average', 'tmin', stimes[0])
stats.set('time-average', 'tmax', stimes[-1])
stats.set('time-average', 'ntlevels', len(stimes))
avgs['stats'] = stats.tostr()
outf = open(args.outf, 'wb')
np.savez(outf, **avgs)
def process_tavg(args):
infs = {}
# Interrogate files passed by the shell
for fname in args.infs:
# Load solution files and obtain solution times
inf = read_pyfr_data(fname)
tinf = Inifile(inf['stats']).getfloat('solver-time-integrator',
'tcurr')
# Retain if solution time is within limits
if args.limits is None or args.limits[0] <= tinf <= args.limits[1]:
infs[tinf] = inf
# Verify that solutions were computed on the same mesh
if inf['mesh_uuid'] != infs[infs.keys()[0]]['mesh_uuid']:
raise RuntimeError('Solution files in scope were not computed '
'on the same mesh')
# Sort the solution times, check for sufficient files in scope
stimes = sorted(infs.keys())
if len(infs) <= 1:
raise RuntimeError('More than one solution file is required to '
'compute an average')
# Initialise progress bar, and the average with first solution
pb = ProgressBar(0, 0, len(stimes), 0)
avgs = {name: infs[stimes[0]][name].copy() for name in infs[stimes[0]]}
solnfs = [name for name in avgs.keys() if name.startswith('soln')]
# Weight the initialised trapezoidal mean
dtnext = stimes[1] - stimes[0]
for name in solnfs:
avgs[name] *= 0.5 * dtnext
pb.advance_to(1)
# Compute the trapezoidal mean up to the last solution file
for i in xrange(len(stimes[2:])):
dtlast = dtnext
dtnext = stimes[i + 2] - stimes[i + 1]
# Weight the current solution, then add to the mean
for name in solnfs:
avgs[name] += 0.5 * (dtlast + dtnext) * infs[stimes[i + 1]][name]
pb.advance_to(i + 2)
# Weight final solution, update mean and normalise for elapsed time
for name in solnfs:
avgs[name] += 0.5 * dtnext * infs[stimes[-1]][name]
avgs[name] *= 1.0 / (stimes[-1] - stimes[0])
pb.advance_to(i + 3)
# Compute and assign stats for a time-averaged solution
stats = Inifile()
stats.set('time-average', 'tmin', stimes[0])
stats.set('time-average', 'tmax', stimes[-1])
stats.set('time-average', 'ntlevels', len(stimes))
avgs['stats'] = stats.tostr()
outf = open(args.outf, 'wb')
np.savez(outf, **avgs)
def process_partition(args):
# Ensure outd is a directory
if not os.path.isdir(args.outd):
raise ValueError("Invalid output directory")
# Partition weights
if ":" in args.np:
pwts = [int(w) for w in args.np.split(":")]
else:
pwts = [1] * int(args.np)
# Partitioner-specific options
opts = dict(s.split(":", 1) for s in args.popts)
# Create the partitioner
if args.partitioner:
part = get_partitioner(args.partitioner, pwts, opts)
else:
for name in sorted(cls.name for cls in subclasses(BasePartitioner)):
try:
part = get_partitioner(name, pwts)
break
except RuntimeError:
pass
else:
raise RuntimeError("No partitioners available")
# Partition the mesh
mesh, part_soln_fn = part.partition(read_pyfr_data(args.mesh))
# Prepare the solutions
solnit = (part_soln_fn(read_pyfr_data(s)) for s in args.solns)
# Output paths/files
paths = it.chain([args.mesh], args.solns)
files = it.chain([mesh], solnit)
# Iterate over the output mesh/solutions
for path, data in zip(paths, files):
# Compute the output path
path = os.path.join(args.outd, os.path.basename(path.rstrip("/")))
# Save to disk
with h5py.File(path, "w") as f:
for k, v in data.items():
f[k] = v
def process_partition(args):
# Ensure outd is a directory
if not os.path.isdir(args.outd):
raise ValueError('Invalid output directory')
# Partition weights
if ':' in args.np:
pwts = [int(w) for w in args.np.split(':')]
else:
pwts = [1]*int(args.np)
# Partitioner-specific options
opts = dict(s.split(':', 1) for s in args.popts)
# Create the partitioner
if args.partitioner:
part = get_partitioner_by_name(args.partitioner, pwts, opts)
else:
for name in sorted(cls.name for cls in subclasses(BasePartitioner)):
try:
part = get_partitioner_by_name(name, pwts)
break
except RuntimeError:
pass
else:
raise RuntimeError('No partitioners available')
# Partition the mesh
mesh, part_soln_fn = part.partition(read_pyfr_data(args.mesh))
# Prepare the solutions
solnit = (part_soln_fn(read_pyfr_data(s)) for s in args.solns)
# Output paths/files
paths = it.chain([args.mesh], args.solns)
files = it.chain([mesh], solnit)
# Iterate over the output mesh/solutions
for path, data in it.izip(paths, files):
# Compute the output path
path = os.path.join(args.outd, os.path.basename(path.rstrip('/')))
# Open and save
with open(path, 'wb') as f:
np.savez(f, **data)
def __init__(self, args):
"""Loads PyFR mesh and solution files
A check is made to ensure the solution was computed on the mesh.
:param args: Command line arguments passed from scripts/postp.py
:type args: class 'argparse.Namespace'
"""
self.outf = args.outf
# Load mesh and solution files
self.soln = read_pyfr_data(args.solnf)
self.mesh = read_pyfr_data(args.meshf)
# Get element types and array shapes
self.mesh_inf = self.mesh.array_info
self.soln_inf = self.soln.array_info
# Dimensions
self.ndims = next(iter(self.mesh_inf.values()))[1][2]
self.nvars = next(iter(self.soln_inf.values()))[1][1]
# Check solution and mesh are compatible
if self.mesh['mesh_uuid'] != self.soln['mesh_uuid']:
raise RuntimeError('Solution "%s" was not computed on mesh "%s"' %
(args.solnf, args.meshf))
# Load the config file
self.cfg = Inifile(self.soln['config'])
# System and elements classs
self.systemscls = subclass_where(
BaseSystem, name=self.cfg.get('solver', 'system')
)
self.elementscls = self.systemscls.elementscls
def process_run(args):
return read_pyfr_data(args.mesh), None, Inifile.load(args.cfg)
def process_run(args):
return read_pyfr_data(args.mesh), None, Inifile.load(args.cfg)
def process_tavg(args):
infs = {}
# Interrogate files passed by the shell
for fname in args.infs:
# Load solution files and obtain solution times
inf = read_pyfr_data(fname)
cfg = Inifile(inf["stats"])
tinf = cfg.getfloat("solver-time-integrator", "tcurr")
# Retain if solution time is within limits
if args.limits is None or args.limits[0] <= tinf <= args.limits[1]:
infs[tinf] = inf
# Verify that solutions were computed on the same mesh3
if inf["mesh_uuid"] != next(iter(infs.values()))["mesh_uuid"]:
raise RuntimeError("Solution files in scope were not" " computed on the same mesh")
# Sort the solution times, check for sufficient files in scope
stimes = sorted(infs)
if len(infs) <= 1:
raise RuntimeError("More than one solution file is required to " "compute an average")
# Initialise progress bar
pb = ProgressBar(0, 0, len(stimes), 0)
# Copy over the solutions from the first time dump
solnfs = infs[stimes[0]].soln_files
avgs = {s: infs[stimes[0]][s].copy() for s in solnfs}
# Weight the initialised trapezoidal mean
dtnext = stimes[1] - stimes[0]
for name in solnfs:
avgs[name] *= 0.5 * dtnext
pb.advance_to(1)
# Compute the trapezoidal mean up to the last solution file
for i in range(len(stimes[2:])):
dtlast = dtnext
dtnext = stimes[i + 2] - stimes[i + 1]
# Weight the current solution, then add to the mean
for name in solnfs:
avgs[name] += 0.5 * (dtlast + dtnext) * infs[stimes[i + 1]][name]
pb.advance_to(i + 2)
# Weight final solution, update mean and normalise for elapsed time
for name in solnfs:
avgs[name] += 0.5 * dtnext * infs[stimes[-1]][name]
avgs[name] *= 1.0 / (stimes[-1] - stimes[0])
pb.advance_to(i + 3)
# Compute and assign stats for a time-averaged solution
stats = Inifile()
stats.set("time-average", "tmin", stimes[0])
stats.set("time-average", "tmax", stimes[-1])
stats.set("time-average", "ntlevels", len(stimes))
avgs["stats"] = stats.tostr()
# Copy over the ini file and mesh uuid
avgs["config"] = infs[stimes[0]]["config"]
avgs["mesh_uuid"] = infs[stimes[0]]["mesh_uuid"]
# Save to disk
with h5py.File(args.outf, "w") as f:
for k, v in avgs.items():
f[k] = v
def process_run(args):
_process_common(args, read_pyfr_data(args.mesh), None, Inifile.load(args.cfg))
