def compute_uhs(the_job, site):
"""Given a `JobContext` and a site of interest, compute UHS. The Java
`UHSCalculator` is called to do perform the core computation.
:param the_job:
:class:`openquake.engine.JobContext` instance.
:param site:
:class:`openquake.shapes.Site` instance.
:returns:
An `ArrayList` (Java object) of `UHSResult` objects, one per PoE.
"""
periods = list_to_jdouble_array(the_job["UHS_PERIODS"])
poes = list_to_jdouble_array(the_job["POES"])
imls = get_iml_list(the_job["INTENSITY_MEASURE_LEVELS"], the_job["INTENSITY_MEASURE_TYPE"])
max_distance = the_job["MAXIMUM_DISTANCE"]
cache = java.jclass("KVS")(config.get("kvs", "host"), int(config.get("kvs", "port")))
erf = generate_erf(the_job.job_id, cache)
gmpe_map = generate_gmpe_map(the_job.job_id, cache)
set_gmpe_params(gmpe_map, the_job.params)
uhs_calc = java.jclass("UHSCalculator")(periods, poes, imls, erf, gmpe_map, max_distance)
uhs_results = uhs_calc.computeUHS(
site.latitude,
site.longitude,
the_job["VS30_TYPE"],
the_job["REFERENCE_VS30_VALUE"],
the_job["DEPTHTO1PT0KMPERSEC"],
the_job["REFERENCE_DEPTH_TO_2PT5KM_PER_SEC_PARAM"],
)
return uhs_results
def compute_disagg_matrix(calc_proxy, site, poe, result_dir):
""" Compute a complete 5D Disaggregation matrix. This task leans heavily
on the DisaggregationCalculator (in the OpenQuake Java lib) to handle this
computation.
The 5D matrix returned from the java calculator will be saved to a file in
HDF5 format.
:param calc_proxy:
A :class:`openquake.engine.CalculationProxy` which holds all of the
data we need to run this computation.
:param site: a single site of interest
:type site: :class:`openquake.shapes.Site` instance`
:param poe: Probability of Exceedence
:type poe: `float`
:param result_dir: location for the Java code to write the matrix in an
HDF5 file (in a distributed environment, this should be the path of a
mounted NFS)
:returns: 2-tuple of (ground_motion_value, path_to_h5_matrix_file)
"""
lat_bin_lims = calc_proxy[job_cfg.LAT_BIN_LIMITS]
lon_bin_lims = calc_proxy[job_cfg.LON_BIN_LIMITS]
mag_bin_lims = calc_proxy[job_cfg.MAG_BIN_LIMITS]
eps_bin_lims = calc_proxy[job_cfg.EPS_BIN_LIMITS]
jd = list_to_jdouble_array
disagg_calc = java.jclass('DisaggregationCalculator')(
jd(lat_bin_lims), jd(lon_bin_lims),
jd(mag_bin_lims), jd(eps_bin_lims))
cache = java.jclass('KVS')(
config.get('kvs', 'host'),
int(config.get('kvs', 'port')))
erf = generate_erf(calc_proxy.job_id, cache)
gmpe_map = generate_gmpe_map(calc_proxy.job_id, cache)
set_gmpe_params(gmpe_map, calc_proxy.params)
imls = get_iml_list(calc_proxy['INTENSITY_MEASURE_LEVELS'],
calc_proxy['INTENSITY_MEASURE_TYPE'])
vs30_type = calc_proxy['VS30_TYPE']
vs30_value = calc_proxy['REFERENCE_VS30_VALUE']
depth_to_1pt0 = calc_proxy['DEPTHTO1PT0KMPERSEC']
depth_to_2pt5 = calc_proxy['REFERENCE_DEPTH_TO_2PT5KM_PER_SEC_PARAM']
matrix_result = disagg_calc.computeMatrix(
site.latitude, site.longitude, erf, gmpe_map, poe, imls,
vs30_type, vs30_value, depth_to_1pt0, depth_to_2pt5)
matrix_path = save_5d_matrix_to_h5(result_dir,
numpy.array(matrix_result.getMatrix()))
return (matrix_result.getGMV(), matrix_path)
def compute_uhs(the_job, site):
"""Given a `JobContext` and a site of interest, compute UHS. The Java
`UHSCalculator` is called to do perform the core computation.
:param the_job:
:class:`openquake.engine.JobContext` instance.
:param site:
:class:`openquake.shapes.Site` instance.
:returns:
An `ArrayList` (Java object) of `UHSResult` objects, one per PoE.
"""
periods = list_to_jdouble_array(the_job['UHS_PERIODS'])
poes = list_to_jdouble_array(the_job['POES'])
imls = general.get_iml_list(the_job['INTENSITY_MEASURE_LEVELS'],
the_job['INTENSITY_MEASURE_TYPE'])
max_distance = the_job['MAXIMUM_DISTANCE']
cache = java.jclass('KVS')(
config.get('kvs', 'host'),
int(config.get('kvs', 'port')))
erf = general.generate_erf(the_job.job_id, cache)
gmpe_map = general.generate_gmpe_map(the_job.job_id, cache)
general.set_gmpe_params(gmpe_map, the_job.params)
uhs_calc = java.jclass('UHSCalculator')(periods, poes, imls, erf, gmpe_map,
max_distance)
site_model = general.get_site_model(the_job.oq_job.id)
if site_model is not None:
sm_data = general.get_closest_site_model_data(site_model, site)
vs30_type = sm_data.vs30_type.capitalize()
vs30 = sm_data.vs30
z1pt0 = sm_data.z1pt0
z2pt5 = sm_data.z2pt5
else:
jp = the_job.oq_job_profile
vs30_type = jp.vs30_type.capitalize()
vs30 = jp.reference_vs30_value
z1pt0 = jp.depth_to_1pt_0km_per_sec
z2pt5 = jp.reference_depth_to_2pt5km_per_sec_param
uhs_results = _compute_uhs(
uhs_calc, site.latitude, site.longitude, vs30_type, vs30, z1pt0, z2pt5
)
return uhs_results
def compute_uhs(the_job, site):
"""Given a `CalculationProxy` and a site of interest, compute UHS. The Java
`UHSCalculator` is called to do perform the core computation.
:param the_job:
:class:`openquake.engine.CalculationProxy` instance.
:param site:
:class:`openquake.shapes.Site` instance.
:returns:
An `ArrayList` (Java object) of `UHSResult` objects, one per PoE.
"""
periods = list_to_jdouble_array(the_job['UHS_PERIODS'])
poes = list_to_jdouble_array(the_job['POES'])
imls = get_iml_list(the_job['INTENSITY_MEASURE_LEVELS'],
the_job['INTENSITY_MEASURE_TYPE'])
max_distance = the_job['MAXIMUM_DISTANCE']
cache = java.jclass('KVS')(
config.get('kvs', 'host'),
int(config.get('kvs', 'port')))
erf = generate_erf(the_job.job_id, cache)
gmpe_map = generate_gmpe_map(the_job.job_id, cache)
set_gmpe_params(gmpe_map, the_job.params)
uhs_calc = java.jclass('UHSCalculator')(periods, poes, imls, erf, gmpe_map,
max_distance)
uhs_results = uhs_calc.computeUHS(
site.latitude,
site.longitude,
the_job['VS30_TYPE'],
the_job['REFERENCE_VS30_VALUE'],
the_job['DEPTHTO1PT0KMPERSEC'],
the_job['REFERENCE_DEPTH_TO_2PT5KM_PER_SEC_PARAM'])
return uhs_results
def compute_disagg_matrix(job_ctxt, site, poe, result_dir):
""" Compute a complete 5D Disaggregation matrix. This task leans heavily
on the DisaggregationCalculator (in the OpenQuake Java lib) to handle this
computation.
The 5D matrix returned from the java calculator will be saved to a file in
HDF5 format.
:param job_ctxt:
A :class:`openquake.engine.JobContext` which holds all of the
data we need to run this computation.
:param site: a single site of interest
:type site: :class:`openquake.shapes.Site` instance`
:param poe: Probability of Exceedence
:type poe: `float`
:param result_dir: location for the Java code to write the matrix in an
HDF5 file (in a distributed environment, this should be the path of a
mounted NFS)
:returns: 2-tuple of (ground_motion_value, path_to_h5_matrix_file)
"""
lat_bin_lims = job_ctxt[job_cfg.LAT_BIN_LIMITS]
lon_bin_lims = job_ctxt[job_cfg.LON_BIN_LIMITS]
mag_bin_lims = job_ctxt[job_cfg.MAG_BIN_LIMITS]
eps_bin_lims = job_ctxt[job_cfg.EPS_BIN_LIMITS]
jd = list_to_jdouble_array
disagg_calc = java.jclass('DisaggregationCalculator')(jd(lat_bin_lims),
jd(lon_bin_lims),
jd(mag_bin_lims),
jd(eps_bin_lims))
cache = java.jclass('KVS')(config.get('kvs', 'host'),
int(config.get('kvs', 'port')))
erf = general.generate_erf(job_ctxt.job_id, cache)
gmpe_map = general.generate_gmpe_map(job_ctxt.job_id, cache)
general.set_gmpe_params(gmpe_map, job_ctxt.params)
imls = general.get_iml_list(job_ctxt['INTENSITY_MEASURE_LEVELS'],
job_ctxt['INTENSITY_MEASURE_TYPE'])
site_model = general.get_site_model(job_ctxt.oq_job.id)
if site_model is not None:
sm_data = general.get_closest_site_model_data(site_model, site)
vs30_type = sm_data.vs30_type.capitalize()
vs30 = sm_data.vs30
z1pt0 = sm_data.z1pt0
z2pt5 = sm_data.z2pt5
else:
jp = job_ctxt.oq_job_profile
vs30_type = jp.vs30_type.capitalize()
vs30 = jp.reference_vs30_value
z1pt0 = jp.depth_to_1pt_0km_per_sec
z2pt5 = jp.reference_depth_to_2pt5km_per_sec_param
matrix_result = _compute_matrix(disagg_calc, site.latitude, site.longitude,
erf, gmpe_map, poe, imls, vs30_type, vs30,
z1pt0, z2pt5)
matrix_path = save_5d_matrix_to_h5(result_dir,
numpy.array(matrix_result.getMatrix()))
return (matrix_result.getGMV(), matrix_path)
def compute_disagg_matrix(job_ctxt, site, poe, result_dir):
""" Compute a complete 5D Disaggregation matrix. This task leans heavily
on the DisaggregationCalculator (in the OpenQuake Java lib) to handle this
computation.
The 5D matrix returned from the java calculator will be saved to a file in
HDF5 format.
:param job_ctxt:
A :class:`openquake.engine.JobContext` which holds all of the
data we need to run this computation.
:param site: a single site of interest
:type site: :class:`openquake.shapes.Site` instance`
:param poe: Probability of Exceedence
:type poe: `float`
:param result_dir: location for the Java code to write the matrix in an
HDF5 file (in a distributed environment, this should be the path of a
mounted NFS)
:returns: 2-tuple of (ground_motion_value, path_to_h5_matrix_file)
"""
lat_bin_lims = job_ctxt[job_cfg.LAT_BIN_LIMITS]
lon_bin_lims = job_ctxt[job_cfg.LON_BIN_LIMITS]
mag_bin_lims = job_ctxt[job_cfg.MAG_BIN_LIMITS]
eps_bin_lims = job_ctxt[job_cfg.EPS_BIN_LIMITS]
jd = list_to_jdouble_array
disagg_calc = java.jclass('DisaggregationCalculator')(
jd(lat_bin_lims), jd(lon_bin_lims),
jd(mag_bin_lims), jd(eps_bin_lims))
cache = java.jclass('KVS')(
config.get('kvs', 'host'),
int(config.get('kvs', 'port')))
erf = general.generate_erf(job_ctxt.job_id, cache)
gmpe_map = general.generate_gmpe_map(job_ctxt.job_id, cache)
general.set_gmpe_params(gmpe_map, job_ctxt.params)
imls = general.get_iml_list(job_ctxt['INTENSITY_MEASURE_LEVELS'],
job_ctxt['INTENSITY_MEASURE_TYPE'])
site_model = general.get_site_model(job_ctxt.oq_job.id)
if site_model is not None:
sm_data = general.get_closest_site_model_data(site_model, site)
vs30_type = sm_data.vs30_type.capitalize()
vs30 = sm_data.vs30
z1pt0 = sm_data.z1pt0
z2pt5 = sm_data.z2pt5
else:
jp = job_ctxt.oq_job_profile
vs30_type = jp.vs30_type.capitalize()
vs30 = jp.reference_vs30_value
z1pt0 = jp.depth_to_1pt_0km_per_sec
z2pt5 = jp.reference_depth_to_2pt5km_per_sec_param
matrix_result = _compute_matrix(
disagg_calc, site.latitude, site.longitude, erf, gmpe_map, poe, imls,
vs30_type, vs30, z1pt0, z2pt5)
matrix_path = save_5d_matrix_to_h5(result_dir,
numpy.array(matrix_result.getMatrix()))
return (matrix_result.getGMV(), matrix_path)