Transverse waves traveling along a string have the following properties. Amplitude of the wave = 2.40 mm Wavelength of the wave = 0.150 m Speed of the wave = 348 m/s Determine the time for a particle of the string to move through a total distance of 1.50 km. 4.0 67.3 S If the string is held under a tension of 1022 N, determine its linear density 4.0 g/m

Calculate the effective resistance of a pocket calculator that has a 1.35-V battery and through which 0.200 mA flows.

The wave show is vibrating with a frequency of 250 Hz. If the length of the string is 2.00 m what is the velocity of the wave? vibrator amplitude mass O 167 m/s 125 m/s 500 m/s O 333 m/s LH

Which statement about waves is false?  In a transverse wave, particles move in the same direction as the energy transport.  Waves transport energy, but not matter from a source to a receiver. The more energy put into the disturbance creating a wave, the greater the amplitude of the wave.

QUESTION 5 A transverse wave completes 12 full oscillations in two seconds. The wave moves at 31.2 m/s. Find the distance between two adjacent crests on the wave (in m). QUESTION 6 The linear density of a guitar string is 8.0 x 104 kg/m. A wave on the string has a frequency of 400 Hz and a wavelength of 60 cm. What is the tension in the string? QUESTION 7 The mathematical expression of a wave is given by y = 4.2 m Sin ( 1.2 rad/m x – 9.6 rad/s t). What is the speed of the wave (in m/s)? QUESTION 8 What is the sound intensity (in µW/m2) at 1.86 m from a 4 mW loudspeaker emitting sound uniformly in all directions?