Measurement and Errors
The length of a simple pendulum is made one-fourth. Its time period becomes:
Two simple pendulums A and B have equal lengths, but their bobs weigh 50 gf and 100 gf respectively. What would be the ratio of their time periods? Give reason for your answer.
$$T = 2 \pi \sqrt{\dfrac{l}{g}}$$
Time period does not depend on the weight of the bob.
So, the ratio of time period will be equal to 1.
The length of a simple pendulum is made one-fourth. Its time period becomes:
Define the terms: (i) oscillation, (ii) amplitude (iii) frequency (iv) time period as related to a simple pendulum
Name two factors on which the time period of a simple pendulum depends. Write the relation for the time period in terms of the above named factors.
Name two factors on which the time period of a simple pendulum depends. Write the relation for the time period in terms of the above named factors.
How does the time period (T) of a simple pendulum depend on its length(I)? Draw a graph showing the variation of $$T^2$$ with 1. How will you use this graph to determine the value of g (acceleration due to gravity)?
A seconds' pendulum is taken to a place where acceleration due to gravity falls to one-forth. How is the time period of the pendulum affected, if at all? Give reason. What will be its new time period?