Difference between revisions of "Broadband File Format Guide"
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In the SRC file, lines starting with '#' are considered comments and are ignored by the Platform. The first few parameters are used to specify the event magnitude and describe the rupture. FAULT_LENGTH is used to specify the extent of the fault plane in the along strike direction, while FAULT_WIDTH specifies the dimension of the fault plane in the down dip direction. DEPTH_TO_TOP specifies how deep the fault plane is located (zero means a surface rupture). LAT_TOP_CENTER and LON_TOP_CENTER specify the location of the top center point of the fault plane. HYPO_ALONG_STK and HYPO_DOWN_DIP specify the hypocenter location within the fault plane, with the (0, 0) coordinate being the TOP_CENTER of the fault plane. Therefore, HYPO_ALONG_STK goes from -(FAULT_LENGTH / 2) to (FAULT_LENGTH / 2), with zero being the mid-point of the fault plane. HYPO_DOWN_DIP starts at zero (top of the plane) and goes down to FAULT_WIDTH. All distances should be provided in kilometers (km). STRIKE, RAKE, and DIP are used to describe the fault mechanism and should be provided in degrees. | In the SRC file, lines starting with '#' are considered comments and are ignored by the Platform. The first few parameters are used to specify the event magnitude and describe the rupture. FAULT_LENGTH is used to specify the extent of the fault plane in the along strike direction, while FAULT_WIDTH specifies the dimension of the fault plane in the down dip direction. DEPTH_TO_TOP specifies how deep the fault plane is located (zero means a surface rupture). LAT_TOP_CENTER and LON_TOP_CENTER specify the location of the top center point of the fault plane. HYPO_ALONG_STK and HYPO_DOWN_DIP specify the hypocenter location within the fault plane, with the (0, 0) coordinate being the TOP_CENTER of the fault plane. Therefore, HYPO_ALONG_STK goes from -(FAULT_LENGTH / 2) to (FAULT_LENGTH / 2), with zero being the mid-point of the fault plane. HYPO_DOWN_DIP starts at zero (top of the plane) and goes down to FAULT_WIDTH. All distances should be provided in kilometers (km). STRIKE, RAKE, and DIP are used to describe the fault mechanism and should be provided in degrees. | ||
| − | In the second part of the file, where model-specific parameters are located, DWID and DLEN are used to provide the step interval (again, in kilometers) for the rupture creation. Smaller values will result in increased computation time. The | + | In the second part of the file, where model-specific parameters are located, DWID and DLEN are used to provide the step interval (again, in kilometers) for the rupture creation. Smaller values will result in increased computation time. The SEED parameter enables randomization in the code (e.g. it allows different slip distributions to be generated). By using the same SEED parameter, users can generate reproducible results in the Broadband Platform. |
| + | |||
| + | Finally, the CORNER_FREQ parameter is only used by the UCSB method. This parameters specifies the frequency at which the Fourier Amplitude Spectrum (FAS) of the moment rate spectrum decays at a rate of ~ -2 from the flat part of the spectrum, in log log domain. There is a relationship between the corner frequency and the average stress drop, e.g. (Brune 1970 and 1971). For specific regions, the stress drop is a parameter and can be measured from regional seismicity. In practice, look at the regional seismicity, calculate stress drops. From these calculations one can choose the appropriate stress drop and compute the corner frequency from the actual moment, rupture area and chosen stress drop. | ||
==== Station List (STL) file ==== | ==== Station List (STL) file ==== | ||
| Line 134: | Line 136: | ||
===== LA Basin ===== | ===== LA Basin ===== | ||
| − | <div style="min-height: | + | <div style="min-height: 460px;"> |
[[File:La basin.png|thumb|upright=2.0|baseline|Velocity Profile for LA Basin]] | [[File:La basin.png|thumb|upright=2.0|baseline|Velocity Profile for LA Basin]] | ||
<pre> | <pre> | ||
| Line 161: | Line 163: | ||
===== Mojave ===== | ===== Mojave ===== | ||
| + | <div style="min-height: 460px;"> | ||
[[File:Mojave.png|thumb|upright=2.0|baseline|Velocity Profile for the Mojave Region]] | [[File:Mojave.png|thumb|upright=2.0|baseline|Velocity Profile for the Mojave Region]] | ||
<pre> | <pre> | ||
| Line 183: | Line 186: | ||
999.0000 7.8000 4.5000 3.2000 450.00 225.00 | 999.0000 7.8000 4.5000 3.2000 450.00 225.00 | ||
</pre> | </pre> | ||
| + | </div> | ||
===== Northern California ===== | ===== Northern California ===== | ||
| + | <div style="min-height: 460px;"> | ||
| + | [[File:Nocal.png|thumb|upright=2.0|baseline|Velocity Profile for Northern California]] | ||
<pre> | <pre> | ||
18 | 18 | ||
| Line 207: | Line 213: | ||
999.0000 7.8000 4.4000 3.3000 440.00 220.00 | 999.0000 7.8000 4.4000 3.3000 440.00 220.00 | ||
</pre> | </pre> | ||
| + | </div> | ||
===== Eastern United States ===== | ===== Eastern United States ===== | ||
| + | <div style="min-height: 460px;"> | ||
| + | [[File:Ceus 1k.png|thumb|upright=2.0|baseline|Velocity Profile for the Eastern United States]] | ||
<pre> | <pre> | ||
23 | 23 | ||
| Line 236: | Line 245: | ||
999.0000 8.4300 4.8700 3.5193 2900.00 2900.00 | 999.0000 8.4300 4.8700 3.5193 2900.00 2900.00 | ||
</pre> | </pre> | ||
| + | </div> | ||
===== Eastern Canada ===== | ===== Eastern Canada ===== | ||
| + | <div style="min-height: 460px;"> | ||
| + | [[File:Canada 1k.png|thumb|upright=2.0|baseline|Velocity Profile for Eastern Canada]] | ||
<pre> | <pre> | ||
24 | 24 | ||
| Line 266: | Line 278: | ||
999.0000 8.4300 4.8700 3.5193 2900.00 2900.00 | 999.0000 8.4300 4.8700 3.5193 2900.00 2900.00 | ||
</pre> | </pre> | ||
| + | </div> | ||
===== Central Japan ===== | ===== Central Japan ===== | ||
| + | <div style="min-height: 460px;"> | ||
| + | [[File:Central japan.png|thumb|upright=2.0|baseline|Velocity Profile for Central Japan]] | ||
<pre> | <pre> | ||
14 | 14 | ||
| Line 286: | Line 301: | ||
999.0000 7.8000 4.5000 3.3000 450.00 225.00 | 999.0000 7.8000 4.5000 3.3000 450.00 225.00 | ||
</pre> | </pre> | ||
| + | </div> | ||
===== Western Japan ===== | ===== Western Japan ===== | ||
| + | <div style="min-height: 460px;"> | ||
| + | [[File:Western japan.png|thumb|upright=2.0|baseline|Velocity Profile for Western Japan]] | ||
<pre> | <pre> | ||
14 | 14 | ||
| Line 306: | Line 324: | ||
999.0000 7.8000 4.5000 3.3000 450.00 225.00 | 999.0000 7.8000 4.5000 3.3000 450.00 225.00 | ||
</pre> | </pre> | ||
| + | </div> | ||
==== Broadband Platform Workflow Description (XML) File ==== | ==== Broadband Platform Workflow Description (XML) File ==== | ||
Latest revision as of 15:45, 23 June 2015
This page describes the format for the files used in Broadband Platform Simulations. The simple source description (SRC) and the station list (STL) files are inputs to Broadband Platform simulations, and must be provided for every run. The velocity model file is part of a velocity model configuration package and is also an input to the platform. A single velocity model file can be shared among several simulations using the same region. Time history (BBP) files are produced by the Platform for each station included in the station list. The Broadband Platform workflow description (XML) file is an intermediate product of the Broadband Platform. It is produced automatically by the Platform, but can also be provided by the user in cases where script automation is used to replace the interactive prompts of the Platform.
Contents
SImple Source Description (SRC) file
Below is a sample SRC file, used to describe the 1989 Loma Prieta earthquake in Northern California:
# # Loma Prieta source file # MAGNITUDE = 6.94 FAULT_LENGTH = 40.0 FAULT_WIDTH = 17.5 DEPTH_TO_TOP = 3.85 STRIKE = 128 RAKE = 145 DIP = 70 LAT_TOP_CENTER = 37.0789 LON_TOP_CENTER = -121.8410 HYPO_ALONG_STK = 0.0 HYPO_DOWN_DIP = 14.75 # # Model specific parameters # DWID = 0.1 DLEN = 0.1 CORNER_FREQ = 0.15 # # Alternative SEEDS create alternative .srf # SEED = 2379646
In the SRC file, lines starting with '#' are considered comments and are ignored by the Platform. The first few parameters are used to specify the event magnitude and describe the rupture. FAULT_LENGTH is used to specify the extent of the fault plane in the along strike direction, while FAULT_WIDTH specifies the dimension of the fault plane in the down dip direction. DEPTH_TO_TOP specifies how deep the fault plane is located (zero means a surface rupture). LAT_TOP_CENTER and LON_TOP_CENTER specify the location of the top center point of the fault plane. HYPO_ALONG_STK and HYPO_DOWN_DIP specify the hypocenter location within the fault plane, with the (0, 0) coordinate being the TOP_CENTER of the fault plane. Therefore, HYPO_ALONG_STK goes from -(FAULT_LENGTH / 2) to (FAULT_LENGTH / 2), with zero being the mid-point of the fault plane. HYPO_DOWN_DIP starts at zero (top of the plane) and goes down to FAULT_WIDTH. All distances should be provided in kilometers (km). STRIKE, RAKE, and DIP are used to describe the fault mechanism and should be provided in degrees.
In the second part of the file, where model-specific parameters are located, DWID and DLEN are used to provide the step interval (again, in kilometers) for the rupture creation. Smaller values will result in increased computation time. The SEED parameter enables randomization in the code (e.g. it allows different slip distributions to be generated). By using the same SEED parameter, users can generate reproducible results in the Broadband Platform.
Finally, the CORNER_FREQ parameter is only used by the UCSB method. This parameters specifies the frequency at which the Fourier Amplitude Spectrum (FAS) of the moment rate spectrum decays at a rate of ~ -2 from the flat part of the spectrum, in log log domain. There is a relationship between the corner frequency and the average stress drop, e.g. (Brune 1970 and 1971). For specific regions, the stress drop is a parameter and can be measured from regional seismicity. In practice, look at the regional seismicity, calculate stress drops. From these calculations one can choose the appropriate stress drop and compute the corner frequency from the actual moment, rupture area and chosen stress drop.
Station List (STL) file
Below is a sample STL file, with the stations used in the 1989 Loma Prieta earthquake:
#BBP Station List for Loma Prieta #SLong SLat RSN Vs30(m/s) LoPass_Freq(Hz) HiPass_Freq(Hz) -121.803 37.050 8001-CLS 462 0.1866 111.1111 -122.010 37.172 8002-LGP 515 0.3012 111.1111 -121.991 37.202 8003-LEX 1070 0.0984 111.1111 -122.031 37.255 8004-STG 387 0.1422 111.1111 -122.009 37.262 8005-WVC 387 0.1263 111.1111 -121.572 36.973 8006-G01 1428 0.2584 111.1111 -121.568 36.973 8007-GIL 730 0.2732 111.1111 -121.984 37.047 8008-BRN 353 0.2611 111.1111 -121.569 37.009 8009-GOF 387 0.2268 111.1111 -121.536 36.987 8010-G03 350 0.1248 111.1111 -121.803 37.210 8011-SJTE 672 0.1085 111.1111 -121.995 36.972 8012-WAH 390 0.2174 111.1111 -121.484 37.026 8020-G06 663 0.3012 111.1111 -122.060 37.001 8016-LOB 714 0.2058 111.1111 -122.062 37.001 8014-UC2 714 0.4348 111.1111 -121.628 37.166 8021-ADL 489 0.1767 111.1111 -121.628 37.166 8022-AND 489 0.2674 111.1111 -121.550 37.118 8026-CYC 540 0.1639 111.1111 -121.434 37.033 8015-GMR 334 0.3077 111.1111 -121.397 36.848 8013-HSP 306 0.1439 111.1111 -121.446 36.765 8025-SGI 748 0.1263 111.1111 -122.210 37.420 8017-SLC 425 0.3077 111.1111 -121.642 36.671 8024-SJW 353 0.1277 111.1111 -122.258 37.429 8019-WDS 454 0.1222 111.1111 -121.395 36.753 8018-SG3 609 0.1263 111.1111 -121.807 37.452 8023-CLR 540 0.1453 111.1111 -122.308 37.512 8040-BES 628 0.2151 111.1111 -121.880 37.597 8032-SUF 401 0.1236 111.1111 -122.361 37.529 8028-XSP 782 0.3012 111.1111 -121.249 36.658 8036-BVW 331 0.1133 111.1111 -122.061 37.657 8030-A3E 517 0.3040 111.1111 -121.932 37.709 8037-DFS 353 0.1038 111.1111 -121.184 36.573 8027-BVF 353 0.3390 111.1111 -121.143 36.532 8038-BVR 304 0.1639 111.1111 -121.043 36.569 8033-BVU 390 0.2500 111.1111 -122.391 37.786 8029-RIN 873 0.2976 111.1111 -122.513 37.778 8031-CFH 782 0.2398 111.1111 -122.249 37.876 8034-BRK 609 0.2398 111.1111 -122.476 37.808 8035-GGB 653 0.2421 111.1111 -122.527 37.822 8039-PTB 1316 0.2941 111.1111
Each line in the station list (STL) file contains information about one station used in the simulation. Lines starting with '#' are comments and are ignored by the Broadband Platform. Each line should contain at least 3 parameters, but can also optionally include a total of 4 or 6 parameters. The first 3 parameters (required) are longitude, latitude, and station name. Latitude and longitude should be provided in decimal degrees (if converting from degrees, minutes, and seconds, the latitude of 37 degrees, 30 minutes, and 0 seconds should be specified as 37.5). The station name is an identifier for the station and should contain between 3 and 10 characters. These 3 parameters form the minimum set required for each of the stations. Optionally, a station can include a 4th parameter, the Vs30 (specified in meters per second) for the particular location where the station is located. Also optionally, each station can include 2 more parameters that specify the frequency range (in Hertz) where recordings for a specific station are valid. These 2 values, used only when the platform runs in validation mode, are used to filter untrusted data out of the Goodness of Fit (GoF) plots. Please note that it is not possible to include the frequency ranges without including the Vs30 parameter. If the frequency range is not specified, the Broadband Platform will use the entire 0.1Hz to 100Hz range for the GoF plots.
Time History (BBP) file
Below is a sample time series (BBP) file, produced by the Broadband Platform:
% -------------------------------------------------- % synthetic broadband seismogram (Mai&Olsen 2008) % N = 8 header lines % site: 5017-A-GLP % NPTS, DT: 10922 0.009372998029 % % time(s) NS (cm/s) EW(cm/s) UP (cm/s) % -------------------------------------------------- 0.00000 0.00000E+00 0.00000E+00 0.00000E+00 0.00937 0.00000E+00 0.00000E+00 0.00000E+00 0.01875 0.00000E+00 0.00000E+00 0.00000E+00 0.02812 0.00000E+00 0.00000E+00 0.00000E+00 0.03749 0.00000E+00 0.00000E+00 0.00000E+00 … 4.82709 0.13824E-01 -0.44237E-02 -0.41983E-02 4.83647 0.64276E-01 -0.24146E-01 -0.31487E-01 4.84584 0.10083E+00 -0.45090E-01 -0.74688E-01 4.85521 0.93571E-01 -0.50971E-01 -0.10271E+00 4.86459 0.74907E-01 -0.51622E-01 -0.12331E+00 4.87396 0.55531E-01 -0.51775E-01 -0.14432E+00 … 102.32502 0.11583E+00 0.26702E-01 0.93545E-01 102.33439 0.11322E+00 0.26290E-01 0.92550E-01 102.34377 0.11017E+00 0.25777E-01 0.91201E-01 102.35314 0.10671E+00 0.25165E-01 0.89504E-01 102.36251 0.10283E+00 0.24455E-01 0.87463E-01
In the BBP file, lines beginning with a '%' or '#' are considered comments and should be ignored. The comment section at the top of the file contains useful information about the BBP file. For example, it includes the station name corresponding to the data, as well as the number of points in the file and the DT used in the simulation.
The rest of the file is organized in 4 columns containing the actual time series data. As indicated in the file's header, the first column corresponds to the timestamp (in seconds), and the last 3 columns correspond to the 3 components - 2 horizontals (north/south and east/west), and 1 vertical (up/down). For a velocity time history, the units indicated at the top of the file will be cm/s and for an acceleration time history, they will be cm/s/s. Each line in the file corresponds to a data point, spaced DT seconds apart from the next point.
Velocity Model File
In the Broadband Platform, 1D velocity model files are part of a velocity model package in the Platform, and are generally tied to a region. All Broadband Platform simulations using that specific region will share the same velocity model file.
In the velocity model file, the first line indicates how many layers compose the velocity model. The following lines, one for each layer, describes the layer in details. The first column is the thickness of the layer (in kilometers). The second and third columns are Vp and Vs, respectively, both in km/s. The forth column contains the rho value (in g/cm3), while the last two columns contain the Qp and Qs parameters respectively.
Currently available 1D velocity models are:
LA Basin
18 0.0020 1.7000 0.4500 2.0000 45.00 22.50 0.0040 1.8000 0.6500 2.1000 65.00 32.50 0.0060 1.8000 0.8500 2.1000 85.00 42.50 0.0080 1.9000 0.9500 2.1000 95.00 47.50 0.0100 2.0000 1.1500 2.2000 115.00 57.50 0.0700 2.4000 1.2000 2.2000 120.00 60.00 0.2000 2.8000 1.4000 2.3000 140.00 70.00 0.2000 3.1000 1.6000 2.4000 160.00 80.00 0.2000 3.4000 1.8000 2.4500 180.00 90.00 0.3000 3.7000 2.1000 2.5000 210.00 105.00 2.0000 4.4000 2.4000 2.6000 240.00 120.00 2.0000 5.1000 2.8000 2.7000 280.00 140.00 1.0000 5.6000 3.1500 2.7500 315.00 157.50 5.0000 6.1500 3.6000 2.8250 360.00 180.00 5.0000 6.3200 3.6500 2.8500 365.00 182.50 5.0000 6.5500 3.7000 2.9000 370.00 185.00 10.0000 6.8000 3.8000 2.9500 380.00 190.00 999.0000 7.8000 4.5000 3.2000 450.00 225.00
Mojave
18
0.0020 1.7000 0.4500 2.0000 45.00 22.50
0.0040 1.8000 0.6500 2.1000 65.00 32.50
0.0060 1.8000 0.8500 2.1000 85.00 42.50
0.0080 1.9000 0.9500 2.1000 95.00 47.50
0.0100 2.0000 1.1500 2.2000 115.00 57.50
0.0700 2.8000 1.4000 2.3000 140.00 70.00
0.2000 3.4000 1.7000 2.4000 170.00 85.00
0.2000 3.9000 2.0000 2.5000 200.00 100.00
0.2000 4.3000 2.3000 2.6000 230.00 115.00
0.3000 4.4000 2.5000 2.6500 250.00 125.00
2.0000 5.1000 2.8000 2.7000 280.00 140.00
2.0000 6.0000 3.3000 2.7500 330.00 165.00
1.0000 6.1000 3.4500 2.8000 345.00 172.50
5.0000 6.1500 3.6000 2.8250 360.00 180.00
5.0000 6.3200 3.6500 2.8500 365.00 182.50
5.0000 6.5500 3.7000 2.9000 370.00 185.00
10.0000 6.8000 3.8000 2.9500 380.00 190.00
999.0000 7.8000 4.5000 3.2000 450.00 225.00
Northern California
18 0.0020 1.7000 0.4500 2.0000 45.00 22.50 0.0040 1.8000 0.6500 2.1000 65.00 32.50 0.0060 1.8000 0.8500 2.1000 85.00 42.50 0.0080 1.9000 0.9500 2.1000 95.00 47.50 0.0100 2.0000 1.1500 2.2000 115.00 57.50 0.0700 2.4000 1.2000 2.2000 120.00 60.00 0.1000 2.6000 1.3000 2.4000 130.00 65.00 0.3000 3.0000 1.4000 2.4500 140.00 70.00 0.5000 3.6000 1.9500 2.5500 195.00 97.50 0.5000 4.4000 2.5000 2.6000 250.00 125.00 1.0000 4.8000 2.8000 2.6000 280.00 140.00 1.0000 5.2500 3.1000 2.6200 310.00 155.00 1.5000 5.5000 3.2500 2.6500 325.00 162.50 2.0000 5.6000 3.3500 2.7000 335.00 167.50 2.0000 5.7500 3.4500 2.7200 345.00 172.50 8.0000 6.1000 3.6000 2.7500 360.00 180.00 8.0000 6.5000 3.8000 3.0000 380.00 190.00 999.0000 7.8000 4.4000 3.3000 440.00 220.00
Eastern United States
23
0.0307 1.7300 1.0000 2.0306 10.00 10.00
0.0140 2.6832 1.5510 2.1408 35.51 35.51
0.0553 3.1192 1.8030 2.2766 38.03 38.03
1.8330 5.1900 3.0000 2.6111 500.00 500.00
0.8950 5.5770 3.2240 2.6650 500.00 500.00
2.1720 5.8280 3.3690 2.7000 1500.00 1500.00
2.1500 6.1760 3.5700 2.7568 2900.00 2900.00
7.5000 6.1800 3.5700 2.7248 2900.00 2900.00
11.0000 6.3600 3.6800 2.7811 2900.00 2900.00
8.0000 7.1200 4.1200 3.0660 2900.00 2900.00
1.0000 7.1500 4.1300 3.0520 2900.00 2900.00
1.2000 7.2600 4.2000 3.0943 2900.00 2900.00
0.8500 7.6400 4.4200 3.2331 2900.00 2900.00
0.2000 7.9700 4.6100 3.3533 2900.00 2900.00
10.0000 8.1200 4.6900 3.4059 2900.00 2900.00
10.0000 8.3500 4.7000 3.4489 2900.00 2900.00
10.0000 8.4000 4.7600 3.4775 2900.00 2900.00
10.0000 8.4100 4.7800 3.4859 2900.00 2900.00
10.0000 8.4200 4.7900 3.4909 2900.00 2900.00
10.0000 8.4200 4.8100 3.4976 2900.00 2900.00
10.0000 8.4200 4.8300 3.5043 2900.00 2900.00
10.0000 8.4200 4.8500 3.5109 2900.00 2900.00
999.0000 8.4300 4.8700 3.5193 2900.00 2900.00
Eastern Canada
24
0.0307 1.7300 1.0000 2.0306 10.00 10.00
0.0140 2.6832 1.5510 2.1408 35.51 35.51
0.0553 3.1192 1.8030 2.2766 38.03 38.03
1.8330 5.1900 3.0000 2.6111 500.00 500.00
0.8950 5.5770 3.2240 2.6650 500.00 500.00
2.1720 5.8280 3.3690 2.7000 1500.00 1500.00
1.5000 6.1760 3.5700 2.7568 2900.00 2900.00
7.9000 6.5000 3.7600 2.8512 2900.00 2900.00
7.6000 6.6500 3.8400 2.8901 2900.00 2900.00
7.8000 6.9700 4.0300 3.0057 2900.00 2900.00
8.2500 7.1200 4.1200 3.0644 2900.00 2900.00
1.0000 7.1500 4.1300 3.0520 2900.00 2900.00
1.2000 7.2600 4.2000 3.0943 2900.00 2900.00
0.8500 7.6400 4.4200 3.2331 2900.00 2900.00
0.2000 7.9700 4.6100 3.3533 2900.00 2900.00
10.0000 8.1200 4.6900 3.4059 2900.00 2900.00
10.0000 8.3500 4.7000 3.4489 2900.00 2900.00
10.0000 8.4000 4.7600 3.4775 2900.00 2900.00
10.0000 8.4100 4.7800 3.4859 2900.00 2900.00
10.0000 8.4200 4.7900 3.4909 2900.00 2900.00
10.0000 8.4200 4.8100 3.4976 2900.00 2900.00
10.0000 8.4200 4.8300 3.5043 2900.00 2900.00
10.0000 8.4200 4.8500 3.5109 2900.00 2900.00
999.0000 8.4300 4.8700 3.5193 2900.00 2900.00
Central Japan
14
0.0020 1.7000 0.4500 2.0000 45.00 22.50
0.0040 1.8000 0.6500 2.1000 65.00 32.50
0.0060 1.8000 0.8500 2.1000 85.00 42.50
0.0080 1.9000 0.9500 2.1000 95.00 47.50
0.0100 2.0000 1.1500 2.2000 115.00 57.50
0.0700 2.4000 1.2000 2.2000 120.00 60.00
0.1000 2.6000 1.3000 2.4000 130.00 65.00
0.1600 3.0000 1.4000 2.4500 140.00 70.00
0.1000 3.6000 2.0000 2.5500 200.00 100.00
0.4400 4.2000 2.4000 2.6000 240.00 120.00
5.9000 5.5000 3.2000 2.6500 320.00 160.00
10.2000 6.1000 3.4000 2.7500 340.00 170.00
14.6300 6.5000 3.8000 3.0000 380.00 190.00
999.0000 7.8000 4.5000 3.3000 450.00 225.00
Western Japan
14
0.0020 1.7000 0.4500 2.0000 45.00 22.50
0.0040 1.8000 0.6500 2.1000 65.00 32.50
0.0060 1.8000 0.8500 2.1000 85.00 42.50
0.0080 1.9000 0.9500 2.1000 95.00 47.50
0.0100 2.0000 1.1500 2.2000 115.00 57.50
0.0200 2.4000 1.2000 2.2000 120.00 60.00
0.0200 2.6000 1.3000 2.4000 130.00 65.00
0.0200 3.0000 1.4000 2.4500 140.00 70.00
0.0200 3.6000 2.0000 2.5500 200.00 100.00
0.0200 4.2000 2.4000 2.6000 240.00 120.00
6.6700 5.5000 3.2000 2.6500 320.00 160.00
10.2000 6.1000 3.4000 2.7500 340.00 170.00
14.6300 6.5000 3.8000 3.0000 380.00 190.00
999.0000 7.8000 4.5000 3.3000 450.00 225.00
Broadband Platform Workflow Description (XML) File
The Broadband Platform uses a XML file to describe the workflow, or processing sequence, required to produce all simulation results. In the workflow description, the <BBP_Modules> section includes a list of all modules that need to run, in the required sequence, with the necessary parameters. For each module, the file contains a <BBP_Module> element, that names the module, includes the files needed to be copied to the indata directory before the module is executed, and the arguments needed for the module to produce the required results. File paths can be absolute paths, or can be referenced to one of Broadband's environmental variables. For example, "BBP_INSTALL_VAL" and "BBP_INSTALL_GF" will refer to the base directories where validation packages and velocity model packages are installed. A workflow description file is produced automatically by the Platform as the user walks through the interactive prompt. It is written to the xml directory before the simulation starts.
<BBP_Run_Specification> <Validation_Run event="WHITTIER" input_station_file="$BBP_INSTALL_VAL/Whittier/gp/whittier_v13_3_1.stl" subset="false"/> <BBP_Modules> <BBP_Module> <name> Genslip </name> <staged_files> <file> $BBP_INSTALL_GF/LABasin/gp/genslip_nr_generic1d-gp01.vmod </file> <file> $BBP_INSTALL_VAL/Whittier/sdsu/whittier_v12_11_0_sdsu.src </file> </staged_files> <arguments> <argument type="str"> genslip_nr_generic1d-gp01.vmod </argument> <argument type="str"> whittier_v12_11_0_sdsu.src </argument> <argument type="str"> metadata.txt </argument> <argument type="str"> whittier_v12_11_0_sdsu.srf </argument> <argument type="str"> LABasin </argument> </arguments> </BBP_Module> <BBP_Module> <name> Jbsim </name> <staged_files> <file> $BBP_INSTALL_GF/LABasin/gp/genslip_nr_generic1d-gp01.vmod </file> <file> $BBP_INSTALL_VAL/Whittier/sdsu/whittier_v12_11_0_sdsu.src </file> <file> $BBP_INSTALL_VAL/Whittier/gp/whittier_v13_3_1.stl </file> </staged_files> <arguments> <argument type="str"> genslip_nr_generic1d-gp01.vmod </argument> <argument type="str"> whittier_v12_11_0_sdsu.src </argument> <argument type="str"> whittier_v12_11_0_sdsu.srf </argument> <argument type="str"> whittier_v13_3_1.stl </argument> <argument type="str"> metadata.txt </argument> <argument type="str"> LABasin </argument> </arguments> </BBP_Module> <BBP_Module> <name> BBToolbox </name> <staged_files> <file> $BBP_INSTALL_GF/LABasin/sdsu/sdsu-apr2013-labasin-vmod.txt </file> <file> $BBP_INSTALL_VAL/Whittier/sdsu/whittier_v12_11_0_sdsu.src </file> <file> $BBP_INSTALL_VAL/Whittier/gp/whittier_v13_3_1.stl </file> </staged_files> <arguments> <argument type="str"> </argument> <argument type="str"> sdsu-apr2013-labasin-vmod.txt </argument> <argument type="str"> whittier_v12_11_0_sdsu.src </argument> <argument type="str"> whittier_v12_11_0_sdsu.srf </argument> <argument type="str"> whittier_v13_3_1.stl </argument> <argument type="str"> metadata.txt </argument> <argument type="str"> LABasin </argument> </arguments> </BBP_Module> <BBP_Module> <name> CopySeismograms </name> <staged_files> <file> $BBP_INSTALL_VAL/Whittier/gp/whittier_v13_3_1.stl </file> </staged_files> <arguments> <argument type="str"> whittier_v13_3_1.stl </argument> <argument type="str"> metadata.txt </argument> </arguments> <keyword_arguments> <keyword_argument keyword="hybrid" type="bool"> True </keyword_argument> </keyword_arguments> </BBP_Module> <BBP_Module> <name> Plot_Map </name> <staged_files> <file> $BBP_INSTALL_VAL/Whittier/sdsu/whittier_v12_11_0_sdsu.src </file> <file> $BBP_INSTALL_VAL/Whittier/gp/whittier_v13_3_1.stl </file> </staged_files> <arguments> <argument type="str"> whittier_v12_11_0_sdsu.src </argument> <argument type="str"> whittier_v13_3_1.stl </argument> </arguments> </BBP_Module> <BBP_Module> <name> PlotSeis </name> <staged_files> <file> $BBP_INSTALL_VAL/Whittier/gp/whittier_v13_3_1.stl </file> </staged_files> <arguments> <argument type="str"> whittier_v13_3_1.stl </argument> <argument type="bool"> True </argument> <argument type="bool"> True </argument> </arguments> </BBP_Module> <BBP_Module> <name> Respect </name> <staged_files> <file> $BBP_INSTALL_VAL/Whittier/gp/whittier_v13_3_1.stl </file> </staged_files> <arguments> <argument type="str"> whittier_v13_3_1.stl </argument> <argument type="str"> metadata.txt </argument> </arguments> </BBP_Module> <BBP_Module> <name> RotD50 </name> <staged_files> <file> $BBP_INSTALL_VAL/Whittier/gp/whittier_v13_3_1.stl </file> </staged_files> <arguments> <argument type="str"> whittier_v13_3_1.stl </argument> <argument type="str"> metadata.txt </argument> </arguments> </BBP_Module> <BBP_Module> <name> ObsSeismograms </name> <staged_files> <file> $BBP_INSTALL_VAL/Whittier/gp/whittier_v13_3_1.stl </file> <file> $BBP_INSTALL_VAL/Whittier/ucb/whittier_v13_3_1-corrections.txt </file> </staged_files> <arguments> <argument type="str"> whittier_v13_3_1.stl </argument> <argument type="str"> metadata.txt </argument> <argument type="str"> $BBP_INSTALL_VAL/Whittier/ucb/AccPEER3 </argument> <argument type="str"> acc_peer </argument> <argument type="str"> whittier_v13_3_1-corrections.txt </argument> </arguments> </BBP_Module> <BBP_Module> <name> GMPEComparison </name> <staged_files> <file> $BBP_INSTALL_VAL/Whittier/gp/whittier_v13_3_1.stl </file> <file> $BBP_INSTALL_VAL/Whittier/sdsu/whittier_v12_11_0_sdsu.src </file> </staged_files> <arguments> <argument type="str"> whittier_v13_3_1.stl </argument> <argument type="str"> whittier_v12_11_0_sdsu.src </argument> <argument type="str"> WHITTIER </argument> <argument type="str"> metadata.txt </argument> <argument type="bool"> True </argument> </arguments> </BBP_Module> <BBP_Module> <name> GenPlots </name> <staged_files> <file> $BBP_INSTALL_VAL/Whittier/gp/whittier_v13_3_1.stl </file> </staged_files> <arguments> <argument type="str"> whittier_v13_3_1.stl </argument> <argument type="str"> metadata.txt </argument> <argument type="str"> $BBP_INSTALL_VAL/Whittier/ucb/AccPEER3 </argument> <argument type="str"> acc </argument> <argument type="str"> WHITTIER </argument> </arguments> </BBP_Module> <BBP_Module> <name> GPGof </name> <staged_files> <file> $BBP_INSTALL_VAL/Whittier/sdsu/whittier_v12_11_0_sdsu.src </file> <file> $BBP_INSTALL_VAL/Whittier/gp/whittier_v13_3_1.stl </file> </staged_files> <arguments> <argument type="str"> whittier_v12_11_0_sdsu.src </argument> <argument type="str"> whittier_v13_3_1.stl </argument> <argument type="str"> metadata.txt </argument> <argument type="str"> $BBP_INSTALL_VAL/Whittier/ucb/AccPEER3 </argument> <argument type="str"> acc </argument> <argument type="float"> 5.89 </argument> <argument type="str"> WHITTIER </argument> <argument type="int"> 50 </argument> </arguments> <keyword_arguments> <keyword_argument keyword="single_component" type="bool"> False </keyword_argument> </keyword_arguments> </BBP_Module> <BBP_Module> <name> GenHTML </name> <staged_files> <file> $BBP_INSTALL_VAL/Whittier/gp/whittier_v13_3_1.stl </file> </staged_files> <arguments> <argument type="str"> whittier_v13_3_1.stl </argument> <argument type="str"> LABasin </argument> <argument type="str"> WHITTIER </argument> <argument type="str"> metadata.txt </argument> </arguments> </BBP_Module> </BBP_Modules> </BBP_Run_Specification>
