Explanation:
This is one of those great problems that is harder to read than to solve!
Remember the following...
Power is the amount of work done over time. 
and that work is Force times distance. 
and that Force is just mass times acceleration. 
So... nesting all the equations together we might get something that looks like. 
We know the power, the time, the acceleration (at this given time) and the mass. We can then solve for d. 
Plug and chug!
Answer:
No
Explanation:
The period of a pendulum is given by

where
L is the length of the pendulum
g is the acceleration due to gravity
We see that the period of the pendulum depends on the value of g. However, the value of the gravitational acceleration is different at different locations on Earth. In particular, at the top of the mountain the value of g is slightly lower than the value of g at the base of the mountain; in fact, g is given by

where
G is the gravitational constant
M is the Earth's mass
r is the distance from the Earth's center
so since r is greater at the top of the mountain, g is lower, and therefore the period of the pendulum will be slightly longer.
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Answer:
Its angular speed is 0.105 rad /s. The minute hand of a clock takes 60 minutes = 60 x 60 seconds to complete one rotation.
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Explanation:
Answer:
The correct option is c. 75 for this question
Explanation:
The correct option is c. 75 for this question:
Let's see how.
Continuity Equation is given as:
AcVc = AaVa
Where,
Aa = Area of Aorta
Ac = Area of the capillary
Va = Fluid speed in Aorta
Vc = Fluid speed in Capillary
So,
Assuming the fluid is the ideal one/
/4
Vc=
/4
Va
Vc=
Va
Dc = Da x
Dc = 2.5 cm x 
Dc = 73.192 cm
Dc = 75 approximately
Hence, the diameter of the capillary = 75 cm approximately