Yes, a larger mass body can attract a smaller mass body through gravitational pull in outer space. This attraction is due to the gravitational force, which is proportional to the masses of both bodies and inversely proportional to the square of the distance between them, as described by Newton's law of universal gravitation. Thus, a massive object like a planet or star will exert a significant gravitational pull on smaller objects, causing them to move towards it.
Although many asteroids accreted through gravity and tidal interactions, their "moons" would simply be smaller asteroids or meteoroids that were caught in the gravitational pull. Unless they approach directly and collide, they can form orbits around the larger body until perturbed by some other body.
Yes, the mass of a planet often affects the number of moons it has, primarily due to gravitational influence. Larger, more massive planets, like Jupiter and Saturn, have stronger gravitational fields that can capture and hold more moons. Additionally, their size allows them to attract more debris and smaller celestial bodies, which can coalesce into moons over time. Conversely, smaller planets like Mars and Mercury have fewer moons because their weaker gravity is less effective at retaining them.
The size of a planet affects its gravitational pull, which plays a crucial role in capturing and retaining moons. Larger planets have stronger gravity, allowing them to attract and hold onto more objects in their vicinity, leading to a greater number of moons. Additionally, larger planets can also have more extensive debris fields, increasing the likelihood of capturing asteroids or other celestial bodies as moons. Smaller planets, by contrast, may lack the gravitational strength to maintain multiple moons.
Adding more protons to an atom would make it smaller. This is because the increased positive charge from the protons will attract the negatively charged electrons more strongly, pulling them closer to the nucleus and reducing the size of the atom as a whole.
Not necessarily. The number of moons a planet has is more related to its formation and gravitational influence. For example, while Earth has 1 moon, larger planets such as Jupiter or Saturn can have dozens.
about 330,000 times stronger
Mass does not change with gravity. Weight increases on BIGGER planets and decreases on smaller planets.
At a larger distance, the gravitional force gets smaller.
yes sure it is silly
yes. gravitational force will act more powerfully on larger mass drop while on smaller mass drop less gravity acts.
larger
Both you and the Earth exert gravitational forces on each other, but the force from the Earth is significantly larger due to its massive size. While you attract the Earth, the gravitational pull you feel is primarily due to the Earth's much greater mass. Thus, the Earth is effectively the stronger attractor in this interaction.
The larger an object's mass, the greater its gravitational force. Objects with more mass exert a stronger gravitational pull on other objects. This is why larger objects, like planets and stars, have stronger gravitational effects compared to smaller objects.
A larger mass has a larger gravitational force. Force is proportional to mass and inversely proportional to the square of the distance. However, it must be noted that the two objects exert the same force on each other.
Although many asteroids accreted through gravity and tidal interactions, their "moons" would simply be smaller asteroids or meteoroids that were caught in the gravitational pull. Unless they approach directly and collide, they can form orbits around the larger body until perturbed by some other body.
A larger planet typically has a greater acceleration of gravity compared to a smaller planet. This is because the gravitational force between two objects is directly proportional to the mass of the objects and inversely proportional to the square of the distance between them. Therefore, a planet with more mass will have a stronger gravitational pull.
No. Its through paleomagnetism.