A) The total monetary cost of building repairs. B) The aesthetic design requirements of the building. C) The maximum height a building can reach. D) Its ability to sustain its main functions during and after an earthquake.
A) If it remains completely free of any cracks. B) If the surrounding landscape is undisturbed. C) If it does not endanger lives by collapsing. D) If the building remains exactly in its original position.
A) It is located in an area with low seismic activity. B) It can fulfill the operational functions for which it was designed. C) It is built with flexible materials. D) It can be sold for a profit after a seismic event.
A) It should suffer no damage at all. B) It should automatically trigger emergency alarms. C) It should survive without globally collapsing. D) It should be able to withstand the earthquake without any repairs needed.
A) It should rely on external support structures. B) It should experience significant structural damage. C) It should remain operational. D) It should be demolished immediately.
A) The exact date of the next predicted earthquake. B) The historical cost of the building materials. C) The quantified level of actual or anticipated performance. D) The color scheme of the interior design.
A) Experimentally or analytically. B) Visually or via demolition. C) Manually or via intuition. D) Socially or economically.
A) By simulating the earthquake on a computer. B) By building a wall and watching it fall. C) By placing a model on a shake-table. D) By interviewing structural engineers.
A) Because they require a large number of human participants. B) Because they involve high-speed internet usage. C) Because they must be repeated every year. D) Because they involve shake-table simulations.
A) Within the last decade. B) More than a century ago. C) In the early 2000s. D) During the 1990s.
A) Eliminating the need for structural models. B) 1:1 scale testing on full structures. C) Performing tests without any equipment. D) Predicting the exact magnitude of future earthquakes.
A) To replace computational models entirely. B) To reduce the cost of building materials. C) To minimize the number of engineers on site. D) Validating models and verifying analysis methods.
A) Field surveys of older buildings. B) Computational models and numerical procedures. C) Manual paper calculations. D) Physical shake-tables.
A) Only for residential buildings. B) Only for bridges and highways. C) Yes, it must be the strongest possible construction. D) No.
A) Government mandates to reduce the number of engineers. B) The discovery of new building materials like plastic. C) A decrease in interest from structural engineers. D) Tremendous costs experienced in recent earthquakes. |