A) To reinforce buildings against earthquakes. B) To predict the exact time of an earthquake. C) To study the history of earthquakes. D) To measure ground motion during an earthquake.
A) The depth of an earthquake. B) The location of an earthquake. C) The magnitude of an earthquake. D) The duration of an earthquake.
A) To predict the likelihood of an earthquake. B) To prevent all damage in an earthquake. C) To increase the weight of the building. D) To absorb and dissipate energy to reduce seismic forces on a building.
A) To study the behavior of earthquakes. B) To predict when earthquakes will occur. C) To reinforce buildings against hurricanes. D) To assess soil properties and foundation design to ensure stability during earthquakes.
A) To predict specific earthquake events. B) To assess and manage the performance levels of structures under different seismic events. C) To study the history of earthquakes. D) To ensure zero damage in all earthquakes.
A) To predict when and where earthquakes will happen. B) To determine the exact timing of an earthquake. C) To ensure structures are designed to withstand potential earthquake forces. D) To study the effects of earthquakes after they occur.
A) By analyzing historical earthquake data and geological features. B) By reinforcing all existing buildings in the area. C) By ignoring seismic activity altogether. D) By predicting the exact timing of earthquakes.
A) To predict the exact intensity of earthquakes. B) To estimate the cost of earthquake damage. C) To prevent all earthquakes from occurring. D) To analyze how structures respond to dynamic loads, such as earthquakes. |