Technically, it's not. It's only attractive between two positive masses or two
negative masses. One positive mass and one negative mass would repel each
other. It's just that we've never encountered a piece of negative mass yet.
No. Magnetism and gravity are quite different forces. For starters, gravity acts on all masses, and the amount of force depends only on the masses and the distance - and it is always attractive. The magnetic force depends on the material, and it can be both attractive and repulsive, depending on the orientation.No. Magnetism and gravity are quite different forces. For starters, gravity acts on all masses, and the amount of force depends only on the masses and the distance - and it is always attractive. The magnetic force depends on the material, and it can be both attractive and repulsive, depending on the orientation.No. Magnetism and gravity are quite different forces. For starters, gravity acts on all masses, and the amount of force depends only on the masses and the distance - and it is always attractive. The magnetic force depends on the material, and it can be both attractive and repulsive, depending on the orientation.No. Magnetism and gravity are quite different forces. For starters, gravity acts on all masses, and the amount of force depends only on the masses and the distance - and it is always attractive. The magnetic force depends on the material, and it can be both attractive and repulsive, depending on the orientation.
Gravity is strictly an attractive force, meaning it always pulls objects towards each other. It differs from magnetism, which can be both attractive and repulsive depending on the orientation of the magnetic fields.
Gravity is an attractive force that pulls objects towards each other. It is not a repelling force.
It is called gravity.
A scale. Although it only measures the attractive force of gravity, it also provides your mass because of the known gravity of the Earth.
gravity;)
I think that gravity exerts an attractive force that gives the material potential energy.
The mutual attractive force of gravity keeps the Earth in its orbit around the Sun.
Gravity.
gravity, no jk
Similarities: Both obey an inverse-square law, and, it seems, extend to an arbitrarily far distance.Differences: Gravity is always attractive; gravity is much weaker for individual particles, but because it is always attractive, the overall effect at long distances, and for large masses, is predominant.Similarities: Both obey an inverse-square law, and, it seems, extend to an arbitrarily far distance.Differences: Gravity is always attractive; gravity is much weaker for individual particles, but because it is always attractive, the overall effect at long distances, and for large masses, is predominant.Similarities: Both obey an inverse-square law, and, it seems, extend to an arbitrarily far distance.Differences: Gravity is always attractive; gravity is much weaker for individual particles, but because it is always attractive, the overall effect at long distances, and for large masses, is predominant.Similarities: Both obey an inverse-square law, and, it seems, extend to an arbitrarily far distance.Differences: Gravity is always attractive; gravity is much weaker for individual particles, but because it is always attractive, the overall effect at long distances, and for large masses, is predominant.
Gravity, electric, and magnetic forces are all fundamental forces of nature that act over a distance and follow an inverse square law. They can be attractive or repulsive based on the charges or masses involved. However, gravity is always attractive, while electric and magnetic forces can be either attractive or repulsive.