SSM In Fig. 17-37, two speakers separated by distance d 1 = 2.00 m are in phase. Assume the amplitudes of the sound waves from the speakers are approximately the same at the listener’s ear at distance d 2 = 3.75 m directly in front of one speaker. Consider the full audible range for normal hearing, 20 Hz to 20 kHz. (a) What is the lowest frequency f min, 1 that gives minimum signal (destructive interference) at the listener’s ear? By what number must f min, 1 be multiplied to get (b) the second lowest frequency f min, 2 that gives minimum signal and the third lowest frequency f min, 3 that gives minimum signal? What is the lowest frequency f max, 1 that gives maximum signal (constructive interference) at the listener's ear? By what number must f max, 1 be multiplied to get (e) the second lowest frequency f max, 2 that gives maximum signal and (f) the third lowest frequency f max, 3 that gives maximum signal? Figure 17-37 Problem 21.
SSM In Fig. 17-37, two speakers separated by distance d 1 = 2.00 m are in phase. Assume the amplitudes of the sound waves from the speakers are approximately the same at the listener’s ear at distance d 2 = 3.75 m directly in front of one speaker. Consider the full audible range for normal hearing, 20 Hz to 20 kHz. (a) What is the lowest frequency f min, 1 that gives minimum signal (destructive interference) at the listener’s ear? By what number must f min, 1 be multiplied to get (b) the second lowest frequency f min, 2 that gives minimum signal and the third lowest frequency f min, 3 that gives minimum signal? What is the lowest frequency f max, 1 that gives maximum signal (constructive interference) at the listener's ear? By what number must f max, 1 be multiplied to get (e) the second lowest frequency f max, 2 that gives maximum signal and (f) the third lowest frequency f max, 3 that gives maximum signal? Figure 17-37 Problem 21.
SSM In Fig. 17-37, two speakers separated by distance d1 = 2.00 m are in phase. Assume the amplitudes of the sound waves from the speakers are approximately the same at the listener’s ear at distance d2 = 3.75 m directly in front of one speaker. Consider the full audible range for normal hearing, 20 Hz to 20 kHz. (a) What is the lowest frequency fmin, 1 that gives minimum signal (destructive interference) at the listener’s ear? By what number must fmin, 1 be multiplied to get (b) the second lowest frequency fmin, 2 that gives minimum signal and the third lowest frequency fmin, 3 that gives minimum signal? What is the lowest frequency fmax, 1 that gives maximum signal (constructive interference) at the listener's ear? By what number must fmax, 1 be multiplied to get (e) the second lowest frequency fmax, 2 that gives maximum signal and (f) the third lowest frequency fmax, 3 that gives maximum signal?
14
Z
In figure, a closed surface with q=b=
0.4m/
C =
0.6m
if the left edge
of the closed surface at position X=a,
if E is non-uniform and is given by
€ = (3 + 2x²) ŷ N/C, calculate the
(3+2x²)
net electric flux leaving the closed
surface.
No chatgpt pls will upvote
suggest a reason ultrasound cleaning is better than cleaning by hand?
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