The planet of an item will remain constant across the planet, but if you give it more mass, the gravitational force increases while the acceleration due to gravity remains constant.
<h3 /><h3>What is the difference between mass and weight?</h3>
The mass of the body is defined as the amount of matter a body has. It is denoted by m and its unit is kg. Mass is the quantity on which a lot of physical quantity depends.
Weight is defined as the amount of force an object exerts on the surface. It is given as the product of mass and the gravitational pull.
Mass is an independent quantity it never depends on the other. While weight is a dependent quantity that depends upon the gravitational pull.
The value of gravitational pull is different in the different parts of the universe. For example, on the earth, the value of gravitational acceleration is 9.81 m/sec².While on the moon it is g/6.
Weight is change according to the place or surrounding while the mass of the body is constant everywhere.
The planet of an item will remain constant across the cosmos, but if you give it more mass, the gravitational force increases while the acceleration of gravity remains constant.
If a planet's gravity weakens, the weight of that planet will likewise be altered. With an increase in mass, weight also rises.
Hence, the gravitational force increases while the acceleration due to gravity remains constant for the given case.
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Gravity. Hope this helps!
When a magnet is moved into a coil of wire, changing the magnetic field and magnetic flux through the coil, a voltage will be generated in the coil according to Faraday's Law.
Answer:
what ar the chances of what.
Let us assume that pulley is mass less.
Let the tension produced at both ends of the pulley is T.
We are asked to calculate the acceleration of the block.
Let the masses of two bodies are denoted as 
As per this diagram, the body having mass 1 kg is moving downward and the body having mass 2 kg is moving on the surface of the table.
Let the acceleration of each block is a .
For body having mass 1 kg:
The net force acting on 1 kg body will be-
[1]
Here tension in the rope will be vertically upward and weight of the body will be in vertical downward direction.
For body having mass 2 kg:
The coefficient of kinetic friction ![[\mu]=0.13](https://tex.z-dn.net/?f=%5B%5Cmu%5D%3D0.13)
Hence the net force acting on the body having mass 2 kg-
[2]
Here the tension of the rope is towards right i.e along the direction of motion of the 2 kg block and frictional force is towards left.
Combining 1 and 2 we get-
[1]
[2]
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![[m_{1} -\mu m_{2} ]g=[m_{1} +m_{2} ]a](https://tex.z-dn.net/?f=%5Bm_%7B1%7D%20-%5Cmu%20m_%7B2%7D%20%5Dg%3D%5Bm_%7B1%7D%20%2Bm_%7B2%7D%20%5Da)
![a=\frac{1-[2*0.13]}{1+2} *9.8\ m/s^2](https://tex.z-dn.net/?f=a%3D%5Cfrac%7B1-%5B2%2A0.13%5D%7D%7B1%2B2%7D%20%2A9.8%5C%20m%2Fs%5E2)
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