Note: You mass never changes
Quote that when you are on a different planet, it means that the gravity changes and weight is the amount of gravity is pulling on the object or body
Mercury- 3.77m/s/s (-62.2% change compared to Earth's)
Venus- 8.76 m/s/s (-9.4%)
Earth- no change, same
Mars- 3.71 m/s/s (-62.1%)
Jupiter- 24.78 m/s/s (+252.2%)
Saturn- 10.44 m/s/s (+106.5%)
Uranus- 8.69 m/s/s (-11.3%)
Neptune- 11.15m/s/s (+113.7%)
Pluto- 0.65m/s/s (-93.3%)
Wiki User
∙ 11y agoThe mass of a planet is directly related to its gravity. The greater the mass of a planet, the stronger its gravitational force, which affects factors like the planet's size, atmosphere, and ability to retain an atmosphere. Additionally, mass plays a role in determining a planet's composition and internal structure.
Wiki User
∙ 14y agoThe number depends on what planet and what person.
In order to give you a number, we'll take the example of the earth and me.
Mass of earth: 5.97 x 1024 kg
Mass of me: 85.3 kg
Mass of earth = (5.97 x 1024 / 85.3) = 7.0008 x 1022 (rounded)
The mass of the earth is 70,008,000,000,000,000,000,000 as much as my mass. (rounded)
(Actually 1 less, because my mass is included in the earth's mass.)
Wiki User
∙ 14y agoOther things being equal, you will weigh more on a more massive planet. However, the density of the planet, or its diameter (whichever of the two you prefer to concentrate on - more diameter means less density) also play a role. For example, on the "surface" of Saturn (that would be the upper atmosphere - the atmosphere just gets denser and denser as you go inside) you would weigh less than on Earth, even though Saturn is much more massive than Earth. This is related to Saturn's extremely low density.
To get specific numbers, remember the law of gravitation - the force of gravitation is proportional to the masses involved, but it is also inversely proportional to the square of the distance. Use the center of the planet for the "distance". Thus, if a planet is 100 times as massive as Earth, but the radius is 10 times more, the radius (squared) would compensate for the larger mass. Note that such a planet would be much less massive than Earth; at the same density, at 10 times the radius it would be 1000 times more massive. This is more or less the situation with Saturn.
Wiki User
∙ 6y agoYes, but to be precise, the surface gravity depends on the mass AND on the diameter. Or alternatively, on the density AND on the diameter.
Wiki User
∙ 6y agoYes, the force of gravitational attraction of a planet is directly proportional to the planet's mass.
Wiki User
∙ 12y agoMass is a property of a planet.
Yes, there is a relationship between a planet's distance from the sun and its surface gravity. The closer a planet is to the sun, the stronger the gravitational pull from the sun, which can affect the planet's own gravity. However, other factors, such as a planet's mass and composition, also play a significant role in determining its surface gravity.
The more massive a planet is, the more likely it is to have larger and more numerous moons. Moons are typically formed from the debris leftover during a planet's formation, and a planet with a greater mass and gravitational pull is more likely to capture and retain these moons in orbit.
Yes, there is a relationship between a planet's size and its weight. The weight of an object on a planet is determined by its mass and the planet's gravitational force, which is influenced by the planet's size. Larger planets typically have stronger gravitational forces, resulting in higher weights for objects on their surface compared to smaller planets with weaker gravitational forces.
The size of a planet's orbit is primarily determined by its distance from the star it orbits, as well as the planet's mass and the characteristics of the star. The orbiting planet's velocity and gravitational interactions with other bodies in the system also play a role in determining the size of its orbit.
Yes, the square of the orbital period of a planet is proportional to the cube of the average distance of the planet from the Sun. This relationship is known as Kepler's Third Law of Planetary Motion. It describes the mathematical relationship between a planet's orbital period and its average distance from the Sun.
The relative strength of its gravitational pull is directly proportional to the planet's mass.
Yes, there is a relationship between the mass of a planet and its gravitational field strength. The greater the mass of a planet, the stronger its gravitational field strength will be. Gravity is directly proportional to mass, so planets with more mass will have a stronger gravitational pull.
The weight of an object on the surface of a planet depends on ...-- The mass of the object.-- The mass of the planet.-- The distance between the center of the object and the centerof the planet, i.e. the planet's radius.
Yes, there is a relationship between a planet's distance from the sun and its surface gravity. The closer a planet is to the sun, the stronger the gravitational pull from the sun, which can affect the planet's own gravity. However, other factors, such as a planet's mass and composition, also play a significant role in determining its surface gravity.
well the relationship between mass and force is..........*relationship... Force=mass x acceleration
The length of a planet's day is directly related to its rate of rotation on its axis. A faster rate of rotation results in a shorter day, while a slower rate of rotation leads to a longer day. This relationship is determined by the planet's mass and distribution of mass.
There's a very definite relationship ... which we can write as a fairly simple mathematicalformula ... between the planet's mass, its radius, and the acceleration of gravity at its surface.
Describe the relationship between mass and weight.
The relationship between the planet's SPEED and its distance from the Sun is given by Kepler's Third Law.From there, it is fairly easy to derive a relationship between the period of revolution, and the distance.
Yes, there is a relationship between the mass of a planet and its distance from its star. Heavier planets tend to form farther away from their star, while lighter planets form closer. This is due to the way planetary material condenses and accumulates in different parts of a developing solar system.
Newton's law of universal gravitation states that the force of gravity between two objects is directly proportional to the product of their masses and inversely proportional to the square of the distance between their centers. This means that gravity depends on both the mass of the planet and the distance between the planet and the object experiencing the force.
weight = mass x gravity. On the surface of planet Earth, gravity is about 9.8 in SI units (9.8 meters/second2, equivalent to 9.8 newton/kilogram).