Galileo determined the relationship between the length of a pendulum and its period. Describe how you would design and execute an experiment to determine the relationship of a pendulum’s length and its period. How would you depict the results to make your analysis of the relationship clear?
A pendulum can be created using a small metal sphere with a small radius and a large mass as compared to the length and mass of the light string from which hangs. Once the pendulum is set into motion and swinging back and forth, the motion itself will be periodic. Here, T is the time period of pendulum taken to complete one oscillation. One oscillation contains back and forth single motion.
Here, we know that
1) The period of a simple pendulum of constant length is independent of its mass, size, shape or material.
2) The period of a simple pendulum is independent of the amplitude of oscillation, provided it is small.
Now, release the pendulum from some height and let it oscillate under gravity. Start the stopwatch at the instant of leaving the pendulum. Use an angle of less than 5 degrees. Count for 30 oscillations:Remember to divide by 30 to get the time for ONE oscillation.
Now, after dividing the time by 30, square the answer.
Now, draw a graph between T2 and L.
It will be a straight line.
we will know that
T = 2 (L/g)
so,
squaring both sides, we have
T2 = 42 *
L/g
so, we can see that
T2 is directly related to L.
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An expression for the period of a simple pendulum with string
length ℓ derived using calculus is T = 2(pi)sqrt{ ℓ /g } . Where g
is the acceleration due to gravity. Use the data in the table to
decide whether or not the pendulum in the experiment can be
considered a simple pendulum. Explain your decision.
Suppose have the ability to vary the mass m of the bob and the length f of the string. You decide to to...