11.1 The centre of mass m₁ is located at distance r from the centre of mass m₂, and m₁ undergoes a circular motion at speed, v, due to m₂. Upon doubling the magnitude of m₁ and halving the separation distance between the centres of the two masses, what shall the speed of m₁ become in terms of v?
11.1 The centre of mass m₁ is located at distance r from the centre of mass m₂, and m₁ undergoes a circular motion at speed, v, due to m₂. Upon doubling the magnitude of m₁ and halving the separation distance between the centres of the two masses, what shall the speed of m₁ become in terms of v?
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![Question 11
11.1 The centre of mass m₁ is located at distance r
from the centre of mass m₂, and m₁ undergoes a circular
motion at speed, v, due to m₂. Upon doubling the
magnitude of m₁ and halving the separation distance
between the centres of the two masses, what shall the
speed of m₁ become in terms of v?
(Show the workings; i.e. show how you get the answer.)
11.2 A 120 g mass, attached to 20 cm long string,
undergoes vertical circular motion at 1.7 m.s¹¹. Determine
the tension on a string at an instant when the stone is
150 mm above the lowest point of its motion. (Ignore the
diameter of the stone)](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2Fabdd1821-d7b6-4171-a67e-edf70418727b%2Fba7c6f7d-dc5d-45f4-8994-0f020979e371%2Fxov0jlg_processed.png&w=3840&q=75)
Transcribed Image Text:Question 11
11.1 The centre of mass m₁ is located at distance r
from the centre of mass m₂, and m₁ undergoes a circular
motion at speed, v, due to m₂. Upon doubling the
magnitude of m₁ and halving the separation distance
between the centres of the two masses, what shall the
speed of m₁ become in terms of v?
(Show the workings; i.e. show how you get the answer.)
11.2 A 120 g mass, attached to 20 cm long string,
undergoes vertical circular motion at 1.7 m.s¹¹. Determine
the tension on a string at an instant when the stone is
150 mm above the lowest point of its motion. (Ignore the
diameter of the stone)
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