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โ 8y agoThe period of a simple pendulum is the time it takes for one full oscillation (swing) back and forth. To find the period, you can use the formula: Period = 1 / Frequency. So, if the frequency is 20 Hz, the period would be 1/20 = 0.05 seconds.
A vibrating simple pendulum does not produce sound because the oscillations are the result of gravitational forces acting on the pendulum's mass. Unlike a vibrating object that produces sound waves through mechanical disturbances in the surrounding medium, a simple pendulum's vibrations do not generate sound waves because there is no medium for the sound to propagate through.
To find the period of the pendulum, you take the average time for one oscillation. The total time for 20 oscillations is 12.6 + 12.7 + 12.5 + 12.6 + 12.7 = 63.1 seconds. Dividing by 20 gives an average time of 3.155 seconds for one oscillation, thus the period is 3.155 seconds.
The period of a wave is the time it takes for one complete cycle to pass a point. It is the reciprocal of the frequency. Therefore, a wave with a frequency of 20 Hz would have a period of 0.05 seconds (1/20 = 0.05). The wavelength of 2.0 m is unrelated to the period in this case.
The frequency of a wave can be calculated as the reciprocal of its period. Therefore, for a wave with a period of 0.125, the frequency would be 1 divided by 0.125, which equals 8 Hz.
A vibrating pendulum does not produce sound because the air surrounding it is not being disturbed enough to create sound waves. Sound is produced when an object vibrates and creates pressure waves in the air, but a pendulum swinging back and forth does not generate enough force to create audible sound waves.
A vibrating simple pendulum does not produce sound because the oscillations are the result of gravitational forces acting on the pendulum's mass. Unlike a vibrating object that produces sound waves through mechanical disturbances in the surrounding medium, a simple pendulum's vibrations do not generate sound waves because there is no medium for the sound to propagate through.
Period = reciprocal of frequency ( 1 / frequency ) = 1/50 = 0.02 second = 20 milliseconds
To find the period of the pendulum, you take the average time for one oscillation. The total time for 20 oscillations is 12.6 + 12.7 + 12.5 + 12.6 + 12.7 = 63.1 seconds. Dividing by 20 gives an average time of 3.155 seconds for one oscillation, thus the period is 3.155 seconds.
The period of a wave is the time it takes for one complete cycle to pass a point. It is the reciprocal of the frequency. Therefore, a wave with a frequency of 20 Hz would have a period of 0.05 seconds (1/20 = 0.05). The wavelength of 2.0 m is unrelated to the period in this case.
Time period per oscillation=32/ 20=1.6 sec per oscillation.
If the logic 0 is the 20% then the period is 2ms and the frequency is 500 Hz. If the logic 0 is the 80% then the period is 50us and the frequency is 20kHz
.05 seconds
20 s
Period = 1/frequency = 1/50,000 = 0.00002 second = 20 microseconds
The frequency of a wave can be calculated as the reciprocal of its period. Therefore, for a wave with a period of 0.125, the frequency would be 1 divided by 0.125, which equals 8 Hz.
A vibrating pendulum does not produce sound because the air surrounding it is not being disturbed enough to create sound waves. Sound is produced when an object vibrates and creates pressure waves in the air, but a pendulum swinging back and forth does not generate enough force to create audible sound waves.
The period is 4 [insert units here]. To get to this answer you use the equation v= λ*ƒ which basically means velocity is equal to lambda (wavelength) times frequency. Next you insert the speed where velocity is then you insert the wavelength and try to find the frequency. Once you get the frequency which should be 1/4 Hz then you use the proportion: period ~ 1/frequency and then you know that the period is 4.