ashish is
An object whose mass is 120 milligrams has the same mass wherever it is ... whether on earth,on the moon, on Jupiter, or in space on the way. Mass doesn't change.What changes is the weight of that mass. The weight is the result of the gravitational attractionbetween that little mass and whatever other mass happens to be nearby.On earth, 120 mg of mass weighs about about 0.00176 newton (0.000265 pound).On the moon, 120 mg of mass weighs about 0.000192 newton (0.0000432 pound).
On or near the surface of the Earth, 1 newton is the weight of 0.102 kg. In other places, 1 newton is the weight of a different amount of mass.
Isaac newton
Force is measured in newton. Gram is a unit of mass, not of force.Force is measured in newton. Gram is a unit of mass, not of force.Force is measured in newton. Gram is a unit of mass, not of force.Force is measured in newton. Gram is a unit of mass, not of force.
Newton's second law of motion states that force is equal to mass times acceleration, or F = ma. So, if a force is exerted on something that has mass, it will accelerate.
That all objects with mass are attacted to all other objects with mass, and it was discovered by Isaac Newton.
The formula is:weight = mass x gravity.On Earth, "gravity" is about 9.8 meters/second2, equivalent to 9.8 newton/kilogram. That means that each kilogram has a weight of 9.8 newton. On other planets, the "gravity" part will be different. For example, on Mars, the gravity is about 3.7 newton/kilogram. Thus, a man with a mass of 100 kilogram (that's well above the average, but simplifies calculations...) would weigh about 980 newton on Earth, and about 370 newton on Mars.
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The law of universal gravitation was formulated by Sir Isaac Newton. It states that every mass attracts every other mass in the universe with a force proportional to the product of their masses and inversely proportional to the square of the distance between them.
If you mean the weight of the entire planet Earth, the question is, "weight on what". Gravitation is always a force between two objects. For example, if you have a mass of 60 kg., then you weigh about 600 Newton. This is the force with which Earth attracts you. By Newton's Third Law, you will attract planet Earth with the same force: 600 Newton. So, in this example, the "weight of Earth" (against you) is 600 Newton. The force with which Earth attracts, and is attracted by, other objects, will vary, depending on the mass of the other object, and the distance.If you mean the weight of the entire planet Earth, the question is, "weight on what". Gravitation is always a force between two objects. For example, if you have a mass of 60 kg., then you weigh about 600 Newton. This is the force with which Earth attracts you. By Newton's Third Law, you will attract planet Earth with the same force: 600 Newton. So, in this example, the "weight of Earth" (against you) is 600 Newton. The force with which Earth attracts, and is attracted by, other objects, will vary, depending on the mass of the other object, and the distance.If you mean the weight of the entire planet Earth, the question is, "weight on what". Gravitation is always a force between two objects. For example, if you have a mass of 60 kg., then you weigh about 600 Newton. This is the force with which Earth attracts you. By Newton's Third Law, you will attract planet Earth with the same force: 600 Newton. So, in this example, the "weight of Earth" (against you) is 600 Newton. The force with which Earth attracts, and is attracted by, other objects, will vary, depending on the mass of the other object, and the distance.If you mean the weight of the entire planet Earth, the question is, "weight on what". Gravitation is always a force between two objects. For example, if you have a mass of 60 kg., then you weigh about 600 Newton. This is the force with which Earth attracts you. By Newton's Third Law, you will attract planet Earth with the same force: 600 Newton. So, in this example, the "weight of Earth" (against you) is 600 Newton. The force with which Earth attracts, and is attracted by, other objects, will vary, depending on the mass of the other object, and the distance.
Weight = mass x gravity. Assuming normal Earth gravity, you can divide the weight (in newton) by 9.8 to get the mass (in kilograms).
When you increase the acceleration of a mass, the force required to achieve that acceleration also increases. This is described by Newton's second law of motion, which states that force is directly proportional to mass and acceleration (F = ma). In other words, a greater acceleration requires a greater force to be applied to the mass in order to achieve it.