Measurement and Errors
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.
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.
The two factors on which the time period of a simple pendulum
is dependent are:
$$\cdot$$ Acceleration due to gravity
$$\cdot$$ Length of the string of the pendulum
Time period in terms of the above named factors are:
$$ T = 2 \pi \sqrt{\frac{t}{g}}$$
Time period is directly dependent on length
with square root and inversely proportional to
'g' - acceleration due to gravity with square root.
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.
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.
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?