Your weight on Earth would not be affected.
However, your LIFE on Earth would be negatively impacted, as a more massive Sun would burn brighter and MUCH hotter. Life on Earth would probably cease in short order.
Nothing, the force of gravity is not affected by Earth's rotation. However measurement of WEIGHT would change.
To convert your weight from Earth to Saturn, you would first calculate your weight on Earth using the equation Weight = Mass x Gravity, then divide that weight by Saturn's gravity (which is about 1.08 times that of Earth). This would give you an estimation of how much you would weigh on Saturn.
The weight of a basketball would vary on each planet depending on its gravity. The weight of a basketball on Mars would be about 0.38 times its weight on Earth, on the Moon it would be about 0.17 times its weight on Earth, and on Jupiter it would be about 2.36 times its weight on Earth.
Your weight would be farthest from your weight on Earth on Jupiter. Due to its massive size and strong gravitational pull, you would weigh significantly more on Jupiter than on Earth. In fact, Jupiter's gravity is about 24.79 m/s² compared to Earth's 9.81 m/s², making it the planet where your weight would increase the most.
Your weight on Mars would be about 38% of your weight on Earth. This is because Mars has a weaker gravitational pull than Earth.
Mass quadrupled = 4 times the weight. Diameter tripled = 1/9 the weight. Total effect: 4/9 the weight.Mass quadrupled = 4 times the weight. Diameter tripled = 1/9 the weight. Total effect: 4/9 the weight.Mass quadrupled = 4 times the weight. Diameter tripled = 1/9 the weight. Total effect: 4/9 the weight.Mass quadrupled = 4 times the weight. Diameter tripled = 1/9 the weight. Total effect: 4/9 the weight.
You would be weightless since you would be in space. the distance to the center of the Earth is about 4k miles.
Yes, as the grvity would be lowered.
Nothing, the force of gravity is not affected by Earth's rotation. However measurement of WEIGHT would change.
Your mass would be unaffected, it is simply to do with the atoms in your body. Your weight would be reduced to zero as that is simply how much your body is affected by gravity.
Mass is not affected by gravity, so it would have the same mass. Weight, on the other hand, is affected by gravity, and would double when on the planet as compared to when it is on Earth (w=mg, where w=weight, m=mass, g=gravitational acceleration also called strength of gravity)
A number tripled is a number multiplied by 3. For the variable x, x tripled would be 3x.
Yes, the mass of a solid in grams would be the same on Earth, as mass is a measure of the amount of matter in an object. However, the weight of the object would be different on Earth compared to other celestial bodies, as weight is the force of gravity acting on an object's mass.
Yes, both mass and weight are affected by gravity on the moon. Mass remains the same because it is a measure of the amount of matter in an object, while weight changes because it depends on the gravitational force acting on an object. As gravity on the moon is weaker than on Earth, a person would weigh less on the moon compared to on Earth.
No. Newtons are a measurement of mass and are relative only to Earth's gravity and are not affected by changes in gravity. Only weight is affected by changing gravity. On Earth, weight and mass are the same because Earth's gravity is the benchmark constant for measuring mass in Newtons, and weight is affected by that very same factor (Earth's gravity). On other planets, mass is unchanged because the Earthly gravity is a constant (and therefore, unchanged), and the weight changes because now it is affected by a new planetary gravity.
A rock's mass is not affected by the moon. It's weight is a function of mass and gravity. So, the same rock would weigh more on Earth than on the Moon, as the Earth's gravity is greater. In order to effectively confuse the issue, I should point out that gravity is also a function of mass...
which what? The bigger the force (weight) the more gravitaional force on an object. less gravity on moon than on earth