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Southern California Earthquake Center CyberShake Progress Update 3 November 2014 through 4 May 2015 UGMS May 2015 Meeting Philip Maechling SCEC IT Architect.

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Presentation on theme: "Southern California Earthquake Center CyberShake Progress Update 3 November 2014 through 4 May 2015 UGMS May 2015 Meeting Philip Maechling SCEC IT Architect."— Presentation transcript:

1 Southern California Earthquake Center CyberShake Progress Update 3 November 2014 through 4 May 2015 UGMS May 2015 Meeting Philip Maechling SCEC IT Architect 4 May 2015

2 Southern California Earthquake Center November 2014 UGMS Meeting Reviewed CyberShake Study 14.2 Results Using: UCERF2 No Background Seismicity 3D Velocity Model: CVM-S4.26 Min Vs: 500 m/s Velocity Meshing: 200m Fault Meshing: 1000m Rupture Generator: genslip v3.2 (Graves & Pitarka 2010) Maximum Frequency: 0.5Hz PSHA 3.0s, 5.0s, 10.0s curves RotD100 3.0s, 5.0s, 10.0s curves

3 Southern California Earthquake Center CyberShake Study 14.2 Hazard Map

4 Southern California Earthquake Center November 2014 UGMS Meeting CyberShake 14.2 Results Reviewed PSA3.0, PSA5.0, PSA10.0 hazard curves and maps Results from 286 Sites RotD100 3.0s, 5.0s, 10s hazard curves Results from 14 sites MCER Probabilistic, Deterministic, Combined, Overall Curves Results from 14 Sites CyberShake 14.2 Results Posted: http://scec.usc.edu/scecpedia/CyberShake_MCER

5 Southern California Earthquake Center November 2014 UGMS MCER Sites

6 Southern California Earthquake Center CyberShake Platform: Physics-Based PSHA

7 Southern California Earthquake Center CyberShake 14.2 Probabilistic Hazard Model Products CS 14.2 RotD100 3.0s Probabilistic Hazard Curve (LADT) CS 14.2 PSA3.0 Hazard Model (286 sites) CS 14.2 RotD100 3.0s Probabilistic, Deterministic, Combined, Overall MCER Curves (LADT) GMPE Comparison Maps Ratio (CS 14.2/ NGA-2) RotD100 3.0s (286 Sites) CS 14.2 RotD100 3.0s Probabilistic, Deterministic, Deterministic Lower Limit, Combined MCER Contour Maps (286 Sites)

8 Southern California Earthquake Center CyberShake 14.2 RotD100 3s Probabilistic Hazard Curve (LADT)

9 Southern California Earthquake Center CyberShake 14.2 Probabilistic MCER Curve (LADT)

10 Southern California Earthquake Center CyberShake 14.2 Deterministic MCER Curve (LADT)

11 Southern California Earthquake Center CyberShake 14.2 Combined MCER Result (LADT)

12 Southern California Earthquake Center CyberShake 14.2 Overall MCER Result (LADT)

13 Southern California Earthquake Center CyberShake 14.2 Probabilistic MCER 3s RotD100 (286 Sites)

14 Southern California Earthquake Center CyberShake 14.2 Deterministic MCER 3s RotD100 (286 Sites)

15 Southern California Earthquake Center CyberShake 14.2 Deterministic Lower Limit MCER 3s RotD100 (286 Sites)

16 Southern California Earthquake Center CyberShake 14.2 Combined MCER Results 3s RotD100 (286 Sites)

17 Southern California Earthquake Center GMPE (NGA-2) Combined MCER Results 3s RotD100 (286 Sites)

18 Southern California Earthquake Center GMPE Comparison Map Ratio (CyberShake 14.2 / NGA-W2) MCER Results 3s RotD100 (286 Sites)

19 Southern California Earthquake Center New CyberShake Computational Results May 2015 1.RotD100 3S, 5S, 10S amplitudes calculated for all 286 CyberShake 14.2 sites 2.MCER RotD100 3S, 5S, 10S Contour Maps using 286 CyberShake 14.2 sites 3.Comparison Maps CyberShake MCER 14.2 versus GMPE MCER NGA-2 4.Started CyberShake 15.4 Study to calculate 1Hz CS results for 336 sites in Los Angeles Region 5.Preliminary CyberShake 15.4 results for 14 sites

20 Southern California Earthquake Center November 2014 UGMS Meeting CyberShake Study 14.2 UCERF2 No Background Seismicity 3D Velocity Model: CVM-S4.26 Min Vs: 500 m/s Velocity Meshing: 200m Fault Meshing: 1000m Rupture Generator: genslip v3.2 (Graves & Pitarka 2010) Maximum Frequency: 0.5Hz PSHA 3.0s, 5.0s, 10.0s curves RotD100 3.0s, 5.0s, 10.0s curves

21 Southern California Earthquake Center May 2015 UGMS Meeting CyberShake Study 15.4 UCERF2 No Background Seismicity 3D Velocity Model: CVM-S4.26 Min Vs: 500 m/s Velocity Meshing: 100m Fault Meshing: 200m Rupture Generator: genslip v3.3.1 (Graves & Pitarka 2014) Maximum Frequency: 1.0Hz PSHA 2.0s, 3.0s, 5.0s, 10.0s curves RotD100 2.0s, 3.0s, 5.0s, 10.0s curves

22 Southern California Earthquake Center CyberShake Study 15.4 sites (336) 336 sites (10 km mesh + points of interest + “gap” sites) Green sites are the 50 new “gap” sites (Run 14 UGMS sites first )

23 Southern California Earthquake Center Study 15.4 Parameters 1.0 Hz deterministic –100 m spacing –dt=0.005 sec –nt=40000 timesteps CVM-S 4.26 –Vs min = 500 m/s UCERF 2 Graves & Pitarka (2014) rupture variations –200 m rupture grid point spacing Source filtered at 2.0 Hz

24 Southern California Earthquake Center Expected Study 15.4 Data Products CVM-S4.26 Los Angeles-area hazard maps RotD100 2, 3, 4, 5, 7.5, 10 sec RotD50 2, 3, 4, 5, 7.5, 10 sec Geometric mean 2, 3, 5, 10 sec Hazard curves for 286 sites, at 2s, 3s, 5s, 10s 336 sets of 2-component SGTs Seismograms for all ruptures (~160M) Peak amplitudes in DB for 2s, 3s, 5s, 10s RotD100, RotD50 and geometric mean SA

25 Southern California Earthquake Center New Computational Results For May 2015 Initiate CyberShake 15.4 Study using NSF and DOE Computers Los Angeles region Hazard Model based on 336 sites at 1Hz Estimated 40M Computer Hours Estimated 500TB+ temporary data at DOE,NSF Computers Estimated 11TB persistent data at SCEC

26 Southern California Earthquake Center Estimated CyberShake 15.4 Computational Duration Estimated computational run-time is 12 weeks (11 running + 1 downtime) –Using DOE Titan (Oak Ridge Leadership Computing Facility) –Using NSF Blue Waters (NCSA) Current Status: Preliminary results for 40 of 336 Sites Completed

27 Southern California Earthquake Center May 2015 UGMS Meeting Discussion Topics Review of new CyberShake 14.2 Computational Data Products (0.5Hz Results) –RotD100 MCER results for 286 sites –MCER Contour Maps using 286 sites –CyberShake / GMPE Comparison Maps using 286 Sites Preliminary Analysis of CyberShake 15.4 results for 14 Sites (1.0Hz Results) –RotD100 MCER results for 14 sites

28 Southern California Earthquake Center End

29 Southern California Earthquake Center Rupture Generator changes Previous number of realizations related to fault length # of realizations = max(10, C * Area/10.0) –C = 0.5 Each realization is unique slip + hypocenter location Supports either random or uniform hypocenter distribution

30 Southern California Earthquake Center Rupture Generator v3.3.1 Use of new G&P rupture generator (v3.3.1) brought 1000m and 200m curves into agreement TEST site, black = 200 m, magenta = 1000 m 0.5Hz UCERF2 3 sec SA CVM-S4

31 Southern California Earthquake Center Random vs Uniform Hypocenters Variation counts –G&P 2010: 423k –Uniform: 485k –Random: 542k Uniform easier to interpolate 0.5Hz UCERF2 3 sec SA CVM- S4.26 WNGC site: black=random, magenta=uniform

32 Southern California Earthquake Center Storage Requirements Titan –Purged: 526 TB (for SGTs and temp data) Blue Waters –Delayed purge: 506 TB (for Titan SGTs) –Purged: 526 TB SGTs + 9 TB data products SCEC –Archived: 9.1 TB (seismograms, PSA, RotD) –Database: 268 GB (Geom @ 4 periods, RotD @ 6) –Temporary: 608 GB (workflow logs) –Shared SCEC disks have 171 TB free

33 Southern California Earthquake Center Computational Requirements Per site: ~3720 node-hrs –SGTs: depends on execution site (~50%) Titan = 2110 node-hrs / 63,300 SUs Blue Waters = 1760 node-hrs / 30,200 SUs More expensive for Titan because of padding in pilot jobs and different node-hrs -> SU conversion –PP: 1880 node-hrs / 60,200 SUs (~50%) Computational time: –Titan (SGTs): 355K node-hours / 10.7M SUs –Blue Waters: 928K node-hours SGTs: 275K GPU node-hrs, 21K CPU node-hrs PP: 632K CPU node-hrs Titan has 104M SUs remaining Blue Waters has 5.3M node-hrs remaining

34 Southern California Earthquake Center End

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