magnetic fields are induced by flowing current or stationary charges, while gravitation fields are induced by bodies of mass as opposed to charge. ok? you got the answer now
for apex its: a quantum field, a gravitational field
because huge asteroids get pulled into Saturn's gravitational field
Contact forces must be touching whatever they are acting on the others have a field of influence around them; ie they don't have to touch to act on something
Yes, certain objects can be suspended or "hover" in a magnetic field due to magnetic levitation. This occurs when a magnetic force counters the gravitational force acting on the object, allowing it to remain suspended in mid-air.
the magnet field is the strongest well the summer solstic when the suns gravitational pull is the strongest
No, magnetic fields do not distort space-time in the same way that a gravitational field does. Gravitational fields are caused by the presence of mass, which curves space-time, while magnetic fields are caused by moving electric charges and do not directly affect the curvature of space-time.
There is no scientific evidence to suggest that the gravitational poles will switch. The Earth's magnetic poles can undergo a reversal, but this does not affect the gravitational poles. The gravitational pull on Earth is primarily due to the mass of Earth itself, not the orientation of its magnetic field.
No, the Earth's gravitational field does not protect us from the sun. The gravitational pull between the Earth and sun keeps Earth in orbit, but it does not provide any physical protection from the sun's radiation or heat. The Earth's atmosphere and magnetic field help shield us from harmful solar radiation.
A proton is surrounded by an electric field, which interacts with other charged particles. It also interacts with a magnetic field under certain conditions, such as when it moves through a magnetic field.
No. Earth's gravitational field is due to the large mass within it; the electromagnetic field is due to the movement of the metals in its core. There are also the standard differences between a gravitational and an EM field.
It is subjective to determine the "most powerful" planet, as each planet has unique characteristics. In our solar system, Jupiter is often considered the most powerful due to its immense size, strong magnetic field, and gravitational influence on other planets.
The magnetic field strength decreases with distance from the source, following an inverse-square law. This means that as you move farther away from the source of the magnetic field, the strength of the field diminishes rapidly. Conversely, getting closer to the source will increase the magnetic field strength.