(a) Determine the speed of transverse waves on a string under a tension of 95.0 N if the string has a length of 2.00 m and a mass of 6.50 g.  m/s (b) Calculate the power required to generate these waves if they have a wavelength of 16.0 cm and an amplitude of 3.50 cm.  kW

A football player is training with the Battle ropes at the gym. The rope that he is using is 4.12 m long nad has a mass of 11.2 kg. The force exerted by the athlete on the rope is 37.9 N. (c) If the waves have a wavelength of 0.755 m, what is the frequency of the waves?

The amplitude of an acoustic wave decreases from 30 pascals to 6 pascals. If the initial power of the wave was 900 watts, what is the wave’s final power ?

Sound waves can be modeled as a spherical plane wave. For radial distances of 0.75 m, 2.5 m, and 5.5m, for a horn of 200 W, determine the inensities at each of these locations.

The frequency and wavelength of a wave in a string are 260 Hz and 0.60 m, respectively. The mas of this string is 5.0 mg and is under 180 N tension. Find the length of this string.

Ocean waves are traveling to the east at 3.4 m/s with a distance of 19 m between crests. (a) With what frequency do the waves hit the front of a boat when the boat is at anchor? Hz (b) With what frequency do the waves hit the front of a boat when the boat is moving westward at 1.0 m/s? Hz

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The greatest value ever achieved for the speed of sound in air is about 1.0 x 10ʻm/s, and the highest frequency ever produced is about 2.0 x 10°Hz. Find the wavelength of this wave.