Ground-motion prediction model from local earthquakes of the Mexico Basin at the hill zone of Mexico City
Ground-motion prediction model from local earthquakes of the Mexico Basin at the hill zone of Mexico City
Bulletin of the Seismological Society of America (September 2016) 106 (6): 2532-2544
- Atlantic Ocean
- attenuation
- Bayesian analysis
- data processing
- earthquake prediction
- earthquakes
- equations
- Federal District Mexico
- ground motion
- Gulf of Mexico
- magnitude
- Mexico
- Mexico Basin
- Mexico City Mexico
- Mexico state
- models
- North Atlantic
- Pacific Coast
- regional
- regression analysis
- risk assessment
- seismic networks
- seismic risk
- seismology
- shallow-focus earthquakes
- statistical analysis
- subduction zones
We developed ground-motion prediction equations (GMPEs) based on Bayesian regressions to predict response spectra at sites located in the hill zone of Mexico City for local earthquakes of the Mexico basin. The coefficients of the GMPEs are built as functions of magnitude (2.3 < or = M (sub w) < or = 3.8) and hypocentral distance (8 < or = R < or = 60 km), using 15 local earthquakes. We compare our results with five GMPEs, an attenuation model obtained in the northern region of the subduction zone in the Pacific coast of Mexico from small earthquakes, and four other existing GMPEs for shallow crustal earthquakes. Two of the GMPEs, although not the most recent ones, are still used to perform probabilistic seismic-hazard analysis for the region under study.
