4. Two in-phase loudspeakers are located at (x, y) coordinates (-3.0 m, + 2.0 m) and...
Two in-phase loudspeakers, which emit sound in all directions, are sitting side by side. One of them is moved sideways by 2.0 m, then forward by 8.0 m. Afterward, constructive interference is observed 1/4 1/2, and 3/4 the distance between the speakers along the line that joins them, and at no other positions along this line. What is the maximum possible wavelength of the sound waves?
Two loudspeakers in a plane are 2.0 m apart and in phase with each other. The speed of sound is 340 m/s. Assume the amplitude of the sound from each speaker is approximately the same at the position of a listener, who is 3.75 m directly in front of one of the speakers. a) (10pts) For what three lowest frequencies will there be a minimum signal (destructive interference)? b) (10pts) For what three lowest frequencies will there be a maximum...
Two loudspeakers, labeled A and B, emnit sound waves in every direction. Both speakers emit sound with the same wavelength, and they are in phase (they emit peaks of the sound wave at the same time). The location labeled C is a location of constructive interference, and the location labeled D is a location of destructive interference. The distances from the loudspeakers to the locations are as indicated. (Picture may not be to scale!!) (a) What is the wavelength of...
Two in-phase loudspeakers are placed along a wall and are
separated by a distance of 6.00 m. They emit sound (take vs = 343
m/s) with a frequency of 137.2 Hz. A person is standing away from
the wall, in front of one of the loudspeakers. What is the closest
distance x from the speaker the person can stand and hear a sound
intensity maximum?
4. [5] Two in-phase loudspeakers are placed along a wall and are separated by a...
question 1)
Two identical loudspeakers, A and B, are 3.00-m apart. The
loudspeakers are driven by the same amplifier and emit 900-Hz sound
waves in all directions. Take the speed of sound in air to be 344
m/s. A small microphone is moved out from point B along a line
perpendicular to the line connecting A and B.
a) At what distances from B will there be destructive
interference?
b) At what non-infinite distances from B will there be
constructive...
Two in-phase loudspeakers, which emit sound in all directions, are sitting side by side. One of them is moved sideways by 6.0 m, then forward by 6.0 m. Afterward, constructive interference is observed 1/4 and 3/4 of the distance between the speakers along the line that joins them. Part A What is the maximum possible wavelength of the sound waves?
Question 27 7.0 m Two loudspeakers in a 20°C room emit 686 Hz sound waves which travel at 343 m/s. These two speakers are wired oppositely as in ILL and emit equal amplitude sound waves. Explain how you know that at the point indicated that the interference is maximally constructive, perfectly destructive, or 5.0 m 636 1,25 84 1.25 m 686
Question 27 7.0 m Two loudspeakers in a 20°C room emit 686 Hz sound waves which travel at 343...
Two identical loudspeakers are driven in phase by a common oscillator at 790 Hz and face each other at a distance of 1.20 m. Locate the points along the line joining the two speakers where relative minima of sound pressure amplitude would be expected. (Take the speed of sound in air to be 343 m/s. Choose one speaker as the origin and give your answers in order of increasing distance from this speaker. Enter 'none' in all unused answer boxes.)...
Two loudspeakers emit sound waves along the x-axis. The sound has maximum intensity when the speakers are 42 cm apart. The sound intensity decreases as the distance between the speakers is increased, reaching zero at a separation of 49 cm . What is the wavelength of the sound? If the distance between the speakers continues to increase, at what separation will the sound intensity again be a maximum?
Two loudspeakers emit sound waves along the x-axis. The sound has maximum intensity when the speakers are 17 cm apart. The sound intensity decreases as the distance between the speakers is increased, reaching zero at a separation of 70 cm . What is the wavelength of the sound? (Express your answer to two significant figures and include the appropriate units.) (btw its not 106 cm)