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Commit 08779047 authored by frcojimenez's avatar frcojimenez
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injection_tests

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[model]
name = gaussian_noise
low-frequency-cutoff = H1:20.0 L1:20.0 V1:20.0
[data]
instruments = H1 L1 V1
trigger-time = 0
analysis-start-time = -8
analysis-end-time = 8
; fake strain and ASD from file:
fake-strain-from-file = H1:/work/julian.westerweck/projects/ringdown/combined_population/noise_curves/AplusDesign.txt L1:/work/julian.westerweck/projects/ringdown/combined_population/noise_curves/AplusDesign.txt V1:/work/julian.westerweck/projects/ringdown/combined_population/noise_curves/avirgo_O5high_NEW.txt
asd-file = H1:/work/julian.westerweck/projects/ringdown/combined_population/noise_curves/AplusDesign.txt L1:/work/julian.westerweck/projects/ringdown/combined_population/noise_curves/AplusDesign.txt V1:/work/julian.westerweck/projects/ringdown/combined_population/noise_curves/avirgo_O5high_NEW.txt
; analytic PSD and fake strain based on that
;fake-strain = H1:aLIGOZeroDetHighPower L1:aLIGOZeroDetHighPower V1:aLIGOZeroDetHighPower
;psd-model = H1:aLIGOZeroDetHighPower L1:aLIGOZeroDetHighPower V1:aLIGOZeroDetHighPower
; zero Noise and analytic PSD
;fake-strain = H1:zeroNoise L1:zeroNoise V1:zeroNoise
;psd-model = H1:aLIGOZeroDetHighPower L1:aLIGOZeroDetHighPower V1:aLIGOZeroDetHighPower
fake-strain-seed = 1
pad-data = 8
strain-high-pass = 15
sample-rate = 8192
data-conditioning-low-freq = 20
psd-inverse-length = 4
channel-name = H1:DCS-CALIB_STRAIN_C02 L1:DCS-CALIB_STRAIN_C02 V1:DCS-CALIB_STRAIN_C02
[sampler]
name = dynesty
nlive = 1000
dlogz = 0.1
[sampler-burn_in]
burn-in-test = nacl & max_posterior
[variable_params]
f_220 =
tau_220 =
amp220 =
phi220 =
f_221 =
tau_221 =
amp221 =
phi221 =
;polarization =
;inclination =
[static_params]
approximant = TdQNMfromFreqTau
f_lower = 18
f_ref = 20
tc = FROM_INJECTION
lmns = 222
t_final = 1
ra = FROM_INJECTION
dec = FROM_INJECTION
polarization = 0
inclination = 0
[prior-f_220+tau_220]
name = uniform_f0_tau
rdfreq = f_220
damping_time = tau_220
min-f0 = 50
max-f0 = 2048
min-tau = 0.0033
max-tau = 0.03
final_mass = 10, 200
final_spin = -0.99, 0.99
[prior-f_221+tau_221]
name = uniform_f0_tau
rdfreq = f_221
damping_time = tau_221
min-f0 = 50
max-f0 = 2048
min-tau = 0.00001
max-tau = 0.003
final_mass = 10, 200
final_spin = -0.99, 0.99
[prior-amp220]
name = uniform_log10
min-amp220 = 1e-25
max-amp220 = 1e-17
[prior-phi220]
name = uniform_angle
[prior-amp221]
name = uniform_log10
min-amp221 = 0.0
max-amp221 = 0.8
[prior-phi221]
name = uniform_angle
[prior-inclination]
name = sin_angle
[prior-polarization]
name = uniform_angle
#! /bin/bash
VIRTUALENV=/work/julian.westerweck/virtualenvs/pycbc-condor1-rd_population/bin/activate
source ${VIRTUALENV}
# name of the workflow
WORKFLOW_NAME="rdpe-overtones"
## path to output dir
#OUTPUT_DIR=output
# input configuration files
CONFIG_PATH=config.ini
INJECTION_FILE_PATH=injections.hdf
# run workflow generator on simulated data
pycbc_make_inference_inj_workflow \
--workflow-name ${WORKFLOW_NAME} \
--output-dir output \
--config-files ${CONFIG_PATH} \
--injection-file ${INJECTION_FILE_PATH} \
--seed 0
###The bin pycbc_submit_dax is not updated automatically in pycbc-dev/bin/ when pulling into src/pycbc/ from git. So use the one in src/pycbc/bin instead.
cd output
bash /work/julian.westerweck/virtualenvs/pycbc-condor1-rd_population/bin/pycbc_submit_dax --no-create-proxy --no-grid --accounting-group cbc.test.rdpe --enable-shared-filesystem --dax ${WORKFLOW_NAME}.dax
[workflow]
; basic information used by the workflow generator
file-retention-level = all_triggers
;h1-channel-name = H1:DCS-CALIB_STRAIN_C02
;l1-channel-name = L1:DCS-CALIB_STRAIN_C02
;v1-channel-name = I1:DCS-CALIB_STRAIN_C02
start-time = -8
end-time = 8
[workflow-ifos]
; the IFOs to analyze
h1 =
l1 =
v1 =
[workflow-inference]
; how the workflow generator should setup inference nodes
config-files = inference_config.ini
[extract_posterior]
parameters = '*'
force =
[workflow-summary_plots]
; parameters that will plotted on the summary page
; summary groups should be limited to 1 or 2 dimensions (though this is not
; enforced)
; parameters must be from the set specified in extract_posterior
plot-group-ft220 = f_220 tau_220
plot-group-ft221 = f_221 tau_221
plot-group-amps = amp220 amp221
plot-group-phis = phi220 phi221
[workflow-plot_params]
; parameters to plot in posterior pages
; parameters must be from the set specified in posterior_parameters
plot-group-all = f_220 tau_220 amp220 phi220 f_221 tau_221 amp221 phi221 #inclination polarization
[workflow-summary_table]
; parameters that will be printed in the summary table
; parameters must be from the set specified in extract_posterior
table-params = f_220 tau_220 amp220 phi220 f_221 tau_221 amp221 phi221 'snr_from_loglr(loglikelihood-lognl):SNR' #inclination polarization 'snr_from_loglr(loglikelihood-lognl):SNR'
;[workflow-pp_test]
;; this section will cause a PP test to be done on the given parameters
;; the parameters must be parameters that are in the posterior file
;pp-params = f_220 tau_220 amp220 phi220 f_330 tau_330 amp330 phi330 inclination polarization
[executables]
; paths to executables to use in workflow
create_injections = ${which:pycbc_create_injections}
inference = ${which:run_pycbc_inference}
extract_posterior = ${which:pycbc_inference_extract_samples}
plot_posterior = ${which:pycbc_inference_plot_posterior}
plot_posterior_summary = ${which:pycbc_inference_plot_posterior}
plot_prior = ${which:pycbc_inference_plot_prior}
table_summary = ${which:pycbc_inference_table_summary}
;create_fits_file = ${which:pycbc_inference_create_fits}
;plot_skymap = ${which:pycbc_inference_plot_skymap}
plot_spectrum = ${which:pycbc_plot_psd_file}
results_page = ${which:pycbc_make_html_page}
; diagnostic plots
;plot_acceptance_rate = ${which:pycbc_inference_plot_acceptance_rate}
;plot_samples = ${which:pycbc_inference_plot_samples}
; executables for percentile-percentile test
;pp_table_summary = ${which:pycbc_inference_pp_table_summary}
;plot_pp = ${which:pycbc_inference_plot_pp}
inj_recovery = ${which:pycbc_inference_plot_inj_recovery}
[create_injections]
; command line options use --help for more information
;ninjections = 10
;dist-section = prior
[inference]
; command line options use --help for more information
processing-scheme = cpu
nprocesses = 8
force =
[pegasus_profile]
condor|+MaxRunTimeHours = 8
[pegasus_profile-inference]
; pegasus profile for inference nodes
condor|request_memory = 10G
condor|request_cpus = 8
[pegasus_profile-plot_prior]
condor|request_memory = 4G
;[pegasus_profile-plot_skymap]
;condor|request_memory = 4G
[pegasus_profile-plot_posterior]
condor|request_memory = 4G
[pegasus_profile-plot_posterior_summary]
condor|request_memory = 4G
;[pegasus_profile-plot_samples]
;condor|request_memory = 4G
[plot_posterior]
; command line options use --help for more information
plot-scatter =
plot-contours =
plot-marginal =
z-arg = snr
plot-injection-parameters =
;plot-prior = /work/julian.westerweck/projects/ringdown/population/combined_population/workflow/test/inference_config.ini
[plot_posterior_summary]
; command line options use --help for more information
plot-contours =
plot-marginal =
plot-density =
density-cmap = Blues
contour-color = black
plot-injection-parameters =
[plot_prior]
; command line options use --help for more information
;[plot_samples]
;; command line options use --help for more information
;walkers = all
;thin-start = 0
;thin-interval = 1
[table_summary]
; command line options use --help for more information
[plot_spectrum]
; command line options use --help for more information
dyn-range-factor = 1
;[pp_table_summary]
; command line options for percentile-percentile table summary
; do not provide parameters or injection-samples map here, as that is read
; from the [workflow-pp_test] section
;[plot_pp]
; command line options for percentile-percentile plot
; do not provide parameters or injection-samples map here, as that is read
; from the [workflow-pp_test] section
[inj_recovery]
; command line options for injection recovery plots
; do not provide parameters or injection-samples map here, as that is read
; from the [workflow-pp_test] section
[results_page]
; command line options use --help for more information
analysis-title = "Ringdown PE for overtones"
output-path = "/work/xisco/WWW/overtones"
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