This physics problem tests your understanding of fundamental physical laws and their applications. The step-by-step solution below breaks down the problem using relevant equations and physical reasoning.

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Answer
2.09 m/s
here are the solutions to the questions:
Question 3
3.1 The belt speed in m/s
Step 1: Convert the driven pulley diameter to meters and its speed to revolutions per second. Diameter of driven pulley . Speed of driven pulley .
Step 2: Calculate the belt speed ().
3.2 Maximum and minimum tension in the belt
Step 1: Convert the angle of contact to radians. Angle of contact . Coefficient of friction .
Step 2: Calculate the tension ratio .
Step 3: Use the power transmitted formula to find the difference between the tight-side tension () and slack-side tension (). Power transmitted .
Step 4: Set up a system of equations using the tension ratio and the tension difference.
Step 5: Solve for (minimum tension). Substitute (1) into (2):
Step 6: Solve for (maximum tension).
Question 4
Given: Annulus (ring gear) teeth. Sun gear teeth. Planetary gear teeth. Arm D.
We use the tabular method for epicyclic gear trains. The fundamental ratio for this configuration (Sun driving Planet, Planet driving Annulus, Arm carrying Planet) is . The negative sign indicates that if the arm is fixed, and the sun rotates clockwise, the annulus rotates counter-clockwise.
4.1 Determine the speed and direction of the sun gear if the annulus is fixed and the arm (D) rotates at .
Given: (annulus fixed), . Find . Using the formula:
4.2 Determine the speed and direction of the annulus if the sun gear is fixed and the arm (D) rotates at .
Given: (sun fixed), . Find . Using the formula:
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Question 3 3.1 The belt speed in m/s Step 1: Convert the driven pulley diameter to meters and its speed to revolutions per second.
This physics problem tests your understanding of fundamental physical laws and their applications. The step-by-step solution below breaks down the problem using relevant equations and physical reasoning.