This electronic supplement provides figures that were not included in the main article for brevity, as well as tables of all ground motions used.
Figures S1–S6 present the model residuals for Arias intensity (IA); Figures S7–S12 present the model residuals for peak incremental ground velocity (Vgi); Figures S13–S18 present the model residuals for cumulative absolute velocity above a 5 cm/s2 threshold (CAV5); and Figures S19–S22 present the model residuals for standardized cumulative absolute velocity (CAVSTD).
Figures S23 and S24 show model comparisons for IA for the shallow crustal and subduction tectonic environments, respectively. Figure S23 provides only the model medians because three models are being compared. Figure S25 shows the attenuation for IA in the intraplate tectonic environment. Figures S26, S27, and S28 show the attenuation for CAV5 in the crustal, subduction, and intraplate tectonic environments, respectively. Figures S29 and S30 show the same for CAVSTD in the shallow crustal and subduction tectonic environments, respectively. Figures S31–S33 show the same for Vgi in all three tectonic environments. Figures S25–S33 show only the attenuation for the models presented in this study.
Tables of metadata for all records included in the shallow crustal, intraplate, and subduction databases are provided as separate comma-separated variable (CSV) files.
Table S1 [Plain Text Comma-Separated Values; ~74 KB]. Metadata for the records included in the crustal database.
Table S2 [Plain Text Comma-Separated Values; ~16 KB]. Metadata for the records included in the intraplate database.
Table S3 [Plain Text Comma-Separated Values; ~66 KB]. Metadata for the records included in the subduction database.
Figure S1. Total residuals plotted against predictor variables for IA for shallow crustal events.
Figure S2. Total residuals plotted against predictor variables for IA for intraplate events.
Figure S3. Total residuals plotted against predictor variables for IA for subduction events.
Figure S4. Between- and within-event residuals plotted against predictor variables for IA for shallow crustal events.
Figure S5. Between- and within-event residuals plotted against predictor variables for IA for intraplate events.
Figure S6. Between- and within-event residuals plotted against predictor variables for IA for subduction events.
Figure S7. Total residuals plotted against predictor variables for Vgi for shallow crustal events.
Figure S8. Total residuals plotted against predictor variables for Vgi for intraplate events.
Figure S9. Total residuals plotted against predictor variables for Vgi for subduction events.
Figure S10. Between- and within-event residuals plotted against predictor variables for Vgi for shallow crustal events.
Figure S11. Between- and within-event residuals plotted against predictor variables for Vgi for intraplate events.
Figure S12. Between- and within-event residuals plotted against predictor variables for Vgi for subduction events.
Figure S13. Total residuals plotted against predictor variables for CAV5 for shallow crustal events.
Figure S14. Total residuals plotted against predictor variables for CAV5 for intraplate events.
Figure S15. Total residuals plotted against predictor variables for CAV5 for subduction events.
Figure S16. Between- and within-event residuals plotted against predictor variables for CAV5 for shallow crustal events.
Figure S17. Between- and within-event residuals plotted against predictor variables for CAV5 for intraplate events.
Figure S18. Between- and within-event residuals plotted against predictor variables for CAV5 for subduction events.
Figure S19. Total residuals plotted against predictor variables for CAVSTD for shallow crustal events.
Figure S20. Total residuals plotted against predictor variables for CAVSTD for subduction events.
Figure S21. Between- and within-event residuals plotted against predictor variables for CAVSTD for shallow crustal events.
Figure S22. Between- and within-event residuals plotted against predictor variables for CAVSTD for subduction events.
Figure S23. Model comparison for IA for selected shallow crustal events: (a) Mw 6.69 Northridge, (b) Mw 6.93 Loma Prieta, and (c) Mw 7.62 Chi-Chi.
Figure S24. Model comparison for IA for selected subduction events: (a) Tohoku—11 March 2011, interface, Mw 9.0; (b) 12 June 2006, intraslab, 146 km depth, Mw 6.2, and (c) 4 November 2002, interface, Mw 5.7.
Figure S25. Model attenuation for IA for selected intraplate events: (a) Mw 5.10 Val-des-Bois, (b) Mw 4.99 Au Sable Forks, and (c) Mw 5.74 Virginia.
Figure S26. Model attenuation for CAV5 for selected shallow crustal events: (a) Mw 6.69 Northridge, (b) Mw 6.93 Loma Prieta, and (c) Mw 7.62 Chi-Chi.
Figure S27. Model attenuation for CAV5 for selected subduction events: (a) Tohoku—11 March 2011, interface, Mw 9.0; (b) 12 June 2006, intraslab, 146 km depth, Mw 6.2; and (c) 4 November 2002, interface, Mw 5.7.
Figure S28. Model attenuation for CAV5 for selected intraplate events: (a) Mw 5.10 Val-des-Bois, (b) Mw 4.99 Au Sable Forks, and (c) Mw 5.74 Virginia.
Figure S29. Model attenuation for CAVSTD for selected shallow crustal events: (a) Mw 6.69 Northridge, (b) Mw 6.93 Loma Prieta, and (c) Mw 7.62 Chi-Chi.
Figure S30. Model attenuation for CAVSTD for selected subduction events: (a) Tohoku—11 March 2011, interface, Mw 9.0; (b) 12 June 2006, intraslab, 146 km depth, Mw 6.2; and (c) 4 November 2002, interface, Mw 5.7.
Figure S31. Model attenuation for Vgi for selected shallow crustal events: (a) Mw 6.69 Northridge, (b) Mw 6.93 Loma Prieta, and (c) Mw 7.62 Chi-Chi.
Figure S32. Model attenuation for Vgi for selected subduction events: (a) Tohoku—11 March 2011, interface, Mw 9.0; (b) 12 June 2006, intraslab, 146 km depth, Mw 6.2; and (c) 4 November 2002, interface, Mw 5.7.
Figure S33. Model attenuation for Vgi for selected intraplate events: (a) Mw 5.10 Val-des-Bois, (b) Mw 4.99 Au Sable Forks, and (c) Mw 5.74 Virginia.
Campbell, K. W., and Y. Bozorgnia (2012). A comparison of ground motion prediction equations for Arias intensity and cumulative absolute velocity developed using a consistent database and functional form, Earthq. Spectra 28, no. 3, 931–941.
Foulser-Piggott, R., and K. Goda (2015). Ground-motion prediction models for Arias intensity and cumulative absolute velocity for Japanese earthquakes considering single-station sigma and within-event spatial correlation, Bull. Seismol. Soc. Am. 105, no. 4, 1903–1918.
Travasarou, T., J. D. Bray, and N. A. Abrahamson (2003). Empirical attenuation relationship for Arias intensity, Earthq. Eng. Struct. Dynam. 32, no. 7, 1133–1155.
[ Back ]