No, humans weigh less on the Moon than on Earth because the Moon has less gravity. The gravitational force on the Moon is about 1/6th of the gravitational force on Earth, so a person would weigh less on the Moon compared to Earth.
The moon moves in its orbit around the Earth due to the gravitational force between the two bodies. This orbit is not circular but elliptical, causing the moon's distance from Earth to vary. Additionally, the moon rotates on its axis at the same rate that it orbits the Earth, resulting in the same side of the moon always facing Earth.
Weight depends on the gravitational pull of a celestial body, while mass remains constant. On the moon, gravitational force is weaker than on Earth, so your weight would be less on the moon compared to Earth. However, your mass would stay the same in both places.
Yes, a person's mass remains the same on the moon as it is on Earth. However, because the gravitational pull on the moon is weaker than on Earth, a person's weight would be less on the moon compared to Earth.
Gravity is the same for all bodies, but the strength of gravity depends on the mass of the objects involved. The Moon has less mass than Earth, so its gravitational force is weaker. This is why you weigh less on the Moon compared to Earth.
The force of gravitation attracting the earth and moon toward each other is exactly the same force on both bodies.Just as the force of gravitation that attracts you toward the earth is exactly the same as the force that attractsthe earth toward you.
In a gravitational situation, the forces are exactly equal in both directions.-- The Earth attracts the moon with a force that is exactly the same as the forcewith which the moon attracts the Earth.-- You attract the Earth with exactly the same amount of force as the Earth attracts you.-- Your weight on Earth is exactly the same as the Earth's weight on you.
Weight is the gravitational force exerted on an object. Your mass is the same on earth and the moon or anywhere else. Your weight depends on the gravitational force exerted on your mass and hence on your location.
No. Gravitational force is present between every two mass bodies, and the force on each body is the same.
No, humans weigh less on the Moon than on Earth because the Moon has less gravity. The gravitational force on the Moon is about 1/6th of the gravitational force on Earth, so a person would weigh less on the Moon compared to Earth.
A single body doesn't have a gravitational force. The force only shows up when there are two bodies. It pulls both of them toward each other, and they both feel the same force. The force between you and the earth is called your "weight", and it holds you down. The force between the earth and the moon is what keeps the moon in its orbit.
No, the earth is bigger than the moon so they don't have the same gravitational pull
The moon moves in its orbit around the Earth due to the gravitational force between the two bodies. This orbit is not circular but elliptical, causing the moon's distance from Earth to vary. Additionally, the moon rotates on its axis at the same rate that it orbits the Earth, resulting in the same side of the moon always facing Earth.
Weight depends on the gravitational pull of a celestial body, while mass remains constant. On the moon, gravitational force is weaker than on Earth, so your weight would be less on the moon compared to Earth. However, your mass would stay the same in both places.
Yes, as the moon has only 1/80 as much mass as the Earth, the gravitational force between it and any object is less than the gravitational force between the Earth and the same object. Every 100 pounds of Earth weight becomes 16.23 pounds on the moon.
What force are you asking about? Gravitational force is weaker on the moon, but the force required to accelerate 1 Kilogram at 1 meter/sec/sec is still 1 Newton.
The gravitational pull of the Moon on Earth is about 1/6th the strength of the Sun's gravitational pull on Earth. While the Moon's gravitational pull affects tides and the Earth's axial tilt, the Sun's gravitational pull is much stronger due to its greater mass.