M1 Mass on Pulley: Calculate ms-mk

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In summary, M1 mass on pulley refers to the mass of an object attached to a pulley system and is denoted as M1 in calculations. To calculate M1 mass on pulley, you need to determine the object's mass, divide it by the acceleration due to gravity, and use the formula M1 = W/g. The difference between the mass of the string and the pulley is denoted as ms-mk in the equation. M1 mass on pulley affects the overall system by adding weight and mass, which can impact the force, tension, and acceleration. Real-life applications of calculating M1 mass on pulley include lifting heavy objects, designing cranes and elevators, and determining the weight and mass of
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BrettL789123
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M1 has a mass of 5.790 kg. It is on a horizontal surface, connected by a massless string to a hook where mass M2 can be increased smoothly. The pulley has a negligible mass and no friction. When M2 = 3.092 kg it begins to accelerate downwards at a rate of 2.328 m/s2. Calculate ms-mk between M1 and the surface.
 
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BrettL789123 said:
Calculate ms-mk between M1 and the surface.

Hi BrettL789123! :smile:

(don't use m for mu … use u, or use µ :wink:)

Show us what you've tried, and where you're stuck, and then we'll know how to help. :smile:
 
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To calculate the difference in mass between M1 and the surface (ms-mk), we can use the equation F=ma, where F is the net force acting on an object, m is the mass of the object, and a is the acceleration of the object.

In this scenario, the net force acting on M1 is the tension in the string, which is equal to the weight of M2. We can use the equation F=mg, where g is the acceleration due to gravity (9.8 m/s2), to find the weight of M2. Thus, F = (3.092 kg)(9.8 m/s2) = 30.3056 N.

Since we know that the acceleration of M1 is 2.328 m/s2, we can rearrange the equation F=ma to solve for the mass of M1. Thus, m = F/a = (30.3056 N)/(2.328 m/s2) = 13.032 kg.

Therefore, the difference in mass between M1 and the surface is equal to the mass of M1 (5.790 kg) minus the calculated mass of M1 (13.032 kg), which is equal to -7.242 kg.

In conclusion, the difference in mass between M1 and the surface (ms-mk) is -7.242 kg. This indicates that the surface must have a mass of 7.242 kg greater than M1 in order for M1 to accelerate downwards at a rate of 2.328 m/s2 when M2 has a mass of 3.092 kg.
 

1. What is M1 mass on pulley?

M1 mass on pulley refers to the mass of the object attached to a pulley system that is being pulled or lifted by the system. This mass is typically denoted as M1 in equations and calculations.

2. How do you calculate M1 mass on pulley?

To calculate the M1 mass on pulley, you need to first determine the mass of the object attached to the pulley and then divide that mass by the acceleration due to gravity (9.8 m/s²). This will give you the weight of the object. Finally, use the formula M1 = W/g to calculate the M1 mass on pulley, where W is the weight and g is the acceleration due to gravity.

3. What is ms-mk in the M1 mass on pulley equation?

In the equation for M1 mass on pulley (M1 = W/g), ms-mk refers to the difference in the mass of the string (ms) and the mass of the pulley (mk). This difference is important to consider in the calculation as it affects the overall weight and mass of the system.

4. How does the M1 mass on pulley affect the overall system?

The M1 mass on pulley affects the overall system by adding weight and mass to the pulley system. This can impact the amount of force required to lift or move the object, as well as the tension in the string and the acceleration of the object.

5. What are some real-life applications of calculating M1 mass on pulley?

Calculating M1 mass on pulley is important in various real-life situations, such as lifting heavy objects using a pulley system, designing and building cranes and elevators, and determining the weight and mass of objects in physics experiments. It is also used in engineering and construction projects that involve pulleys and lifting mechanisms.

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