Slenderman the arrival gas for silo generator

REASONING According to Equation 16.2, the linear density of the string is given by where the speed v of waves on the middle C string is given by Equation 16.1, period. The period and wavelength of a wave on this string 13. What is the length of the string? The middle C string on a piano is under a tension of 944 N. A transverse wave traveling on this string has a frequency of 260 Hz and a wavelength of 0.60 m. The mass of a string is, and it is stretched so that the tension in it is 180 N. Section 16.3 The Speed of a Wave on a String 12. The speed of the skier is greater than the speed of the wave. When she skis in the direction opposite to the direction in which the wave moves, she springs upward every 0.500 s in response to the crests. When she skis in the same direction as a traveling wave, she springs upward every 0.600 s because of the wave crests. What is the wave speed? **11.A water-skier is moving at a speed of. The bumping frequency is 1.2 Hz, and the crests are separated by 5.8 m. Each time he passes over a crest, he feels a bump. How much time is required for a particle of the string to move through a total distance of 1.0 km? Answer:ДЄ jetskier is moving at in the direction in which the waves on a lake are moving. The speed of a transverse wave on a string is, and the wavelength is 0.18 m. If the groove is located 0.100 m from the center of the record (see drawing), what is the wavelength in the groove? A record has a 5.00-kHz tone cut in the groove. What is the speed of the wave? 7.Using the data in the graphs that accompany this problem, determine the speed of the wave.ДЄnswer: *8. The timing starts with the first crest and ends with the fourth. SOLUTION Substituting the values for and f, we find that the distance between crests isДЄ person fishing from a pier observes that four wave crests pass by in 7.0 s and estimates the distance between two successive crests to be 4.0 m. According to the data given in the problem statement, the frequency is. The wave on the Slinky will have the same frequency as the simple harmonic motion of the hand. In order to use Equation 16.1, we must first determine the frequency of the wave. The wavelength is related to the speed and frequency of a periodic wave by (Equation 16.1). The distance between two adjacent crests on the wave, is, by definition, one wavelength. Answer: 0.25 m REASONING When the end of the Slinky is moved up and down continuously, a transverse wave is Find the distance between two adjacent crests on the wave. The wave moves along the Slinky at a speed of. In Figure 16.2c the hand moves the end of the Slinky up and down through two complete cycles in one second. Find the wave's (b)frequency and (c)period.

(a)What was the speed of the wave? For reference, the speed of a 747 jetliner is about. One tsunami, generated off the Aleutian islands in Alaska, had a wavelength of 750 km and traveled a distance of 3700 km in 5.3 h.

In the deep ocean their amplitude is barely noticeable, but upon reaching shore, they can rise up to the astonishing height of a six-story building. 4.Tsunamis are fast-moving waves often generated by underwater earthquakes. Answer: It is not possible to determine the amplitude. If it is not possible to determine any of these quantities, then so state. Determine, if possible, the wave's (a)period, Answer: 10.0 s (b)frequency, Answer: 0.100 Hz (c)wavelength, Answer: 32 m (d)speed, and Answer: (e)amplitude. The distance between two successive crests is 32 m. (a)What is the frequency at which each boxcar passes? (b)What is the speed of the train? 3.A woman is standing in the ocean, and she notices that after a wave crest passes, five more crests pass in a time of 50.0 s. Suppose that 15 boxcars pass by in a time of 12.0 s and each has a length of 14.0 m. SOLUTION Solving Equation 16.1 for the frequency, we find thatДў.Consider the freight train in Figure 16.6. We can solve this equation for the frequency in terms of the speed and the wavelength. REASONING Since light behaves as a wave, its speed v, frequency f, and wavelength are related to according to (Equation 16.1). Light is an electromagnetic wave and travels at a speed of yellow-green light, which has a wavelength of Answer: Problems Section 16.1 The Nature of Waves Section 16.2 Periodic Waves 1.

Slenderman the arrival gas for silo generator