35 how would this diagram change if the seismic station was farther from the earthquake?
16) B, the S wave has arrived later This is the general condition, always P wave …. View the full answer. Transcribed image text: How would this diagram change if the seismic station was farther from the earthquake? Surface Wave S-Wave P-Wave wwww.w.ww.lWawww 8:00 am Minutes the P-waves would arrive later the S-waves would arrive later there would be a larger gap between the arrives of the P- and S-waves all of these Question 17 1 pts Which of the following does NOT help explain why ... 34. Explain how the seismic tracings recorded at station A and station B indicate that station A is farther from the earthquake epicenter than station B. 35. Seismic station A is located 5,400 kilometers from the epicenter of the earthquake. How much time would it take for the first S-wave produced by this earthquake to reach seismic station A?
How would this diagram change if the seismic station was farther from the earthquake? ... Most large earthquakes on subduction zones occur because of:.
How would this diagram change if the seismic station was farther from the earthquake?
An earthquake emits both P-waves and S-waves that travel at different speeds through the Earth. A P-wave travels at 9 000 m/s and an S-wave at 4 000 m/s. If P-waves are received at a seismic station 34.0 s before an S-wave arrives, how far is the station from the earthquake center? A seismic station close to the earthquake records P waves and S waves in quick succession. With increasing distance from the earthquake the time difference between the arrival of the P waves and the arrival of the S waves increases. This basic approach to locating quakes is illustrated using an example of an earthquake near Mexico. How would this diagram change if the seismic station was farther from the earthquake? There would be a larger gap between the arrival of P then S waves.
How would this diagram change if the seismic station was farther from the earthquake?. Along its orbital path Earth passes through a stream of charged particles emitted by the sun. Q. A seismic wave that causes particles of rock to move in a side-to-side direction. Q. The point on Earth's surface directly above an earthquake's starting point or focus. Q. The diagram below shows two seismogram tracings, at stations A and B, for the same earthquake. The arrival times of the P-waves and S-waves are indicated on each tracing. 5) Explain how the seismic tracings recorded at station A and station B in the diagram indicate that station A is farther from the earthquake epicenter than station B. An earthquake has just occurred. seismic waves from the earthquake are detected at two recording stations. at recording station a, t = 45 s. at recording station b, t = 100 s. which recording station is farther away from the epicenter? a is farther from the epicenter than b. b is farther from the epicenter than a. a and b are the same distance from the epicenter. cannot be determined. How would this diagram change if the seismic station was farther from the ... the local magnitude of the earthquake recorded by these three stations is 4.1 ...
Which seismic station was farthest from the earthquake epicenter? Which statement correctly compares seismic p-waves with seismic s-waves; At a minimum, how many seismic stations are necessary to locate the epicenter of an earthquake? What is the minimum number of seismic stations needed to locate an earthquake; No s waves arrive directly at ... moving away from an earthquake epicenter to seismic station . A. No . S-waves arrive directly at seismic station . A. because (1) some parts of the core are liquid (2) S-waves travel too slowly (3) the distance to seismic station . A. is too great (4) seismic station . A. is located on glacial ice. City Average January Air Temperature (°F ... Question 7 0 out of 0.5 points How would this diagram change if the seismic station was farther from the earthquake? Question 8 0.5 out of 0.5 points The December 26, 2004 Indonesian earthquake occurred: C. just off land on a subduction zone. seismograms of the same earthquake recorded at three different seismic stations, X, Y, and Z. The distances from each seismic station to the earthquake epicenter have been drawn on the map. A coordinate system has been placed on the map to describe locations. The map scale has not been included. A)E-5 B)G-1 C)H-3 D)H-8
How would this diagram change if the seismic station was farther from the earthquake? What agreement was signed between the IASB and FASB in September 2002? Find the mean and median for each of the two samples, then compare the two sets of results. -A comparison is made between summer electric bills of those who have central 27. An earthquake recorded by seismic stations around the world created the pattern of seismic wave recordings shown in the diagram below A) Some seismic waves cannot travel through oceans to reach every location on Earth. B) S-waves are too weak to travel very far from the earthquake focus. d. use seismic records from three or more stations to triangulate the location. How would this diagram change if the seismic station was farther from the earthquake? b. There would be a larger gap between the arrival of the P and S waves ... Water displaced during an earthquake uplifts some seafloor (up arrow) and down-drops other seafloor ... Solutions for Chapter 12 Problem 31MCQ: How would this diagram change if the seismic station was farther from the earthquake? A. the P-waves would arrive laterB. the S-waves would arrive laterC. there would be a larger gap between the arrives of the P- and S-wavesD. all of these …
For the remaining questions, use the diagram that follows: At the top and bottom horizontal axes, the seismic velocity, or the speed of travel of the earthquake waves within the Earth, is shown as kilometers per second (km s-1).The depth, at which waves appear, is shown as kilometers. The top of the graph represents the surface of the Earth (Earth's crust), the bottom represents the center ...
At farther distances the amplitude of the seismic waves decreases as the energy released by the earthquake spreads throughout a larger volume of Earth. Also with increasing distance from the earthquake, the waves are separated apart in time and dispersed because P, S, and surface waves travel at different speeds.
1. Explain how the seismic tracings recorded at station A and station B indicates that station A is farther from the earthquake epicenter than station B. 2. Seismic station A is located 5,400 kilometers from the epicenter of the earthquake. How much time would it take for the first S-wave produced by this earthquake to reach seismic station A? 3.
A firm produces hula hoops in a perfectly competitive market and currently produces and sells 100 per week. At this production quantity of 100 per week, society would be best served. Refer to the information provided in Figure 13.9 below to answer the question (s) that follow. Figure 13.9 Refer to Figure 13.9.
As the P and S waves travel out from an earthquake the P waves get progressively farther ahead of the S waves. Therefore, the farther a seismic recording station is from the earthquake epicenter the greater will be the difference in time of arrival between the P and S wave.
diagram below, which represents seismic stations A, B, and C. The distance from each station to an earthquake's epicenter is plotted. A)D B)E C)F D)G The epicenter is closest to point A)the depth of the earthquake's focus B)the direction to the earthquake's focus C)the location of the earthquake's epicenter D)the distance to the earthquake's ...
Temporal changes in site effects are obtained using the HVSR (horizontal-to-vertical spectral ratio) method and strong motion records after the M w 7.6 Chi-Chi earthquake, Taiwan. Seismic data recorded between 1995 and 2010 are used, comprising 3,708 data from 15 stations adjacent to the Chelungpu fault. Temporal fluctuations are determined by analyzing the site effect variation using a time ...
How would this diagram change if the seismic station was farther from the earthquake? A. The P-waves would arrive later. B. The S-waves would arrive later. C. There would be a larger gap between the arrives of the P- and S-waves. D. All of these choices are correct.
An earthquake generated on this type of fault would most likely be ... How would this diagram change if the seismic station was farther from the earthquake?
8. The diagram below represents three seismograms showing the same earthquake as it was recorded at three different seismic stations, A, B, and C. Which statement correctly describes the distance between the earthquake epicenter and these seismic stations? (1) A is closest to the epicenter, and C is farthest from the epicenter.
Jan 20, 2022 · How would this diagram change if the seismic station was farther from the earthquake? A) the P-waves would arrive later B) the S-waves would arrive later C) there would be a larger gap between the arrives of the P- and S-waves D) all of these
The distance from this seismic station to the epicenter of the earthquake is approximately; At a minimum, how many seismic stations are necessary to locate the epicenter of an earthquake? How would this diagram change if the seismic station was farther from the earthquake? What is the minimum number of seismic stations necessary to locate an ...
The diagram represents a portion of Earth's interior. Letters A, B, and C represent interior layers. ... Both P-waves and S-waves were received at seismic stations A and B, but only P-waves were received at seismic stations C and D. ... If a seismic station is 3200 km from an earthquake epicenter, which is the time needed for an S-wave to ...
When an earthquake occurs the seismogram will show ground motions that typically last from several tens of seconds to many minutes, depending on the size of the earthquake and the sensitivity of the seismograph. The height of the recorded waves on the seismogram (wave amplitude) is a greatly magnified representation of the actual ground motion.
How would the seismogram below change if the seismic station was farther from the earthquake epicenter? (Choose all that apply.) The P-waves would arrive ...
Figure 3.7 Depiction of seismic waves emanating from an earthquake (red star). Some waves travel through the crust to the seismic station (at ~6 km/s), while others go down into the mantle (where they travel at ~8 km/s) and are bent upward toward the surface, reaching the station before the ones that travelled only through the crust.
The diagram below is a seismogram of the famous San Francisco earthquake of 1906, recorded at a seismic station located 6,400 kilometers from San Francisco. Which time scale best represents the arrival-time difference between P-waves and S-waves at this station? Base your answers to questions __ and __ in part on the news article and map below.
How would this diagram change if the seismic station was farther from the earthquake? There would be a larger gap between the arrival of P then S waves.
A seismic station close to the earthquake records P waves and S waves in quick succession. With increasing distance from the earthquake the time difference between the arrival of the P waves and the arrival of the S waves increases. This basic approach to locating quakes is illustrated using an example of an earthquake near Mexico.
An earthquake emits both P-waves and S-waves that travel at different speeds through the Earth. A P-wave travels at 9 000 m/s and an S-wave at 4 000 m/s. If P-waves are received at a seismic station 34.0 s before an S-wave arrives, how far is the station from the earthquake center?
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