The mass will remain the same, but the weight will be one sixth of what it was on earth, since weight depends on the local force of gravity. The moons gravity is one sixth of the earths.
The mass stays the same, the weight is about one sixth as here on Earth. The astronauts had to learn how to move there... it's harder getting stopped and doing corners, as you don't have the weight and traction you are used to.
Weight would change when an object is taken from Earth to the Moon due to the difference in gravitational pull between the two celestial bodies. It would weigh less on the Moon compared to Earth.
When an object is taken from Earth to the Moon, its mass remains the same, but its weight decreases significantly due to the Moon's weaker gravitational pull, which is about one-sixth that of Earth's. Weight is the force exerted on an object due to gravity, so the object will weigh less on the Moon than it does on Earth. For example, an object weighing 60 kg on Earth would weigh only about 10 kg on the Moon.
I would weigh 30lbs 5.9oz.Well your weight on earth is given by the equation weight = mass x gravity. The different gravity constant on the moon is what changes your weight, but your mass remains the same. The weight formula on the moon would be the same only with the different gravity constant. So putting these equations together we get:weight on moon = mass x gravity constant of moonweight on moon = (weight on earth/gravity constant of earth) x gravity constant of moonThen we plug in the gravity constants and get the final conversion equation:weight on moon = (weight on earth/ 9.8) x 1.6Note: The constants are given with the units m/s2 but because they cancel each other out, you can enter your weight with any units and solve for your weight on the moon in the same units.Hope this helps!Well actually you have no weight on the Moon you just are weightless because there is no gravity...About 1/6 of your weight on the Earth. The weight on the Moon is about 1.6 Newton/kilogram.nope, weight is relative to gravitational force. The astronaut would have the same mass though.
The main difference is that the rock's appearance may change due to exposure to Earth's atmosphere, causing potential oxidation or weathering. Additionally, the rock's composition could be altered as it interacts with Earth's environment, leading to potential chemical reactions that could affect its structure. Lastly, the rock's weight will be different on Earth due to the moon's lower gravitational pull compared to Earth.
dnt trip
The mass stays the same, the weight is about one sixth as here on Earth. The astronauts had to learn how to move there... it's harder getting stopped and doing corners, as you don't have the weight and traction you are used to.
the mass would stay the same no matter where you are and the weight is the force of gravity on an object, so depending on the gravity your weight would change
the mass would stay the same no matter where you are and the weight is the force of gravity on an object, so depending on the gravity your weight would change
1/6 that of the earth
Nothing would happen to mass, but as weight is technically a force due to gravity, based on mass, the weight would be doubled, but again mass would remain the same.
It is estimated that up to 70% of the 'surface' of the earth is taken up with water. The earth's water is reckoned to weigh about 1.460 petatonnes (Pt) (1021kilograms). The weight of the earth (including its water) is reckoned to be 5973.6 petatonnes
No, the Earth's weight remains constant because when humans extract oil from the ground, it is mostly used for energy and other purposes on the surface rather than being taken off the planet. The total mass of the Earth is so massive that the extraction of oil does not significantly impact its overall weight.
Weight would change when an object is taken from Earth to the Moon due to the difference in gravitational pull between the two celestial bodies. It would weigh less on the Moon compared to Earth.
The acceleration of gravity (lower case g) on Earth's surface is often taken to be 9.8 m/s^2, so the force exerted can be determined by multiplying the acceleration by the mass in question. This manifests in the weight of the object.
The photos of Earth taken from the Moon show oceans and clouds. Nothing else is distinguishable.
The mass of the object would remain the same, as it represents the amount of matter within the object. However, the weight of the object would double on the planet with twice the gravity of Earth because weight depends on the gravitational pull experienced by the object.