Well, no matter what, our mass would be the same where ever you go. Matter cannot be created or destroyed. Theres no way that you could just lose a little mass simply by going to the moon, its impossible.
No, the mass density of an object would not be the same on the moon as on Earth. The mass of the object would remain the same, but since the gravitational pull on the moon is weaker than that on Earth, the volume of the object would decrease on the moon, resulting in a different mass density calculation compared to Earth.
The moon has 1/6th the gravity of the Earth. If something weighed 60 pounds on Earth it would weigh ten pounds on the Moon. The mass of the object would not change, as mass is the measurement of how much stuff you are.
No. The mass of the moon is a fraction of the earth's mass.
No, your mass would remain the same on the Moon as it is on Earth. Mass is a measure of the amount of matter in an object and is independent of gravity. However, your weight would be different on the Moon due to the lower gravitational pull compared to Earth.
If Earth's mass increased, then the gravitational force between Earth and the moon would also increase. The moon would be more strongly attracted to Earth. The acceleration between the 2 would increase also.
A 5.0kg mass would have the same mass on both Earth and the moon. However, on Mercury, due to its different gravitational pull compared to Earth and the moon, the mass would still be 5.0kg, but it would weigh less on Mercury than on Earth or the moon.
If you weighed 200kg on Earth you would weigh 33.2kg on the Moon. Your mass would stay the same.on earth the mass is equal to the weight.on the moon the weight will be inferior to the mass due to the smaller mass of the moon inducing less gravitational pull
No, the mass density of an object would not be the same on the moon as on Earth. The mass of the object would remain the same, but since the gravitational pull on the moon is weaker than that on Earth, the volume of the object would decrease on the moon, resulting in a different mass density calculation compared to Earth.
There is gravity on the moon! The gravity on the Moon is 1/6th that of what is observed on Earth. An object with a weight of 36 kg on Earth would weigh 1/6th that on the Moon. 1/6th of 36kg is, 6 kg. An object with a MASS of 36 kg on Earth would have the same 36 kg MASS on the moon. Mass is the amount of matter that makes up an object, whereas WEIGHT is the measurement of the force of gravity on that MASS. This is why your weight will change when visiting other planets, but your mass stays constant plant to planet!
The moon is smaller than the Earth so that would mean the size is smaller and the mass is also smaller because the mass depends on the size of the object so the moon would have less mass than Earth.
11.83 that is the 1/6 of his mass in earth
The moon has 1/6th the gravity of the Earth. If something weighed 60 pounds on Earth it would weigh ten pounds on the Moon. The mass of the object would not change, as mass is the measurement of how much stuff you are.
1 earth mass = 81.78 moon mass (rounded)1 moon mass = 0.01223 earth mass = 1.223% of earth mass (rounded)The mass of the moon is only 1.2 percent of the mass of Earth.
No. The mass of the moon is a fraction of the earth's mass.
If you mean 1/80, that would refer to the Moon's mass - it is about 1/80. of the Earth's mass. The Moon's diameter, on the other hand, is about 1/4 of the Earth's diameter; this would make the Moon's volume about 1/64 (1/4 cubed) of the Earth's volume.
The mass of an object would remain the same on the moon as it is on Earth. Mass is a measure of the amount of matter in an object, so it does not change with location. However, the weight of the object would be less on the moon due to the moon's lower gravity compared to Earth.
No, your mass would remain the same on the Moon as it is on Earth. Mass is a measure of the amount of matter in an object and is independent of gravity. However, your weight would be different on the Moon due to the lower gravitational pull compared to Earth.