Yes. All magnets of north and south poles. There is no such thing as a magnetic monopole.
Without poles, it's not a magnet. It's just a bar. All magnets have north and south poles.
They are both magnets, one small, one huge, and both with north and south poles.
A bar magnet has two poles, a north and a south. When you break a bar magnet into to pieces, you create two bar magnets, each with a north and a south pole. So the total number of poles will then be four.
Bar magnets interact with each other through magnetic forces. Like poles (north-north or south-south) repel each other, while opposite poles (north-south) attract. Factors influencing their magnetic attraction or repulsion include the strength of the magnets, the distance between them, and the orientation of their poles.
Yes. All magnets of north and south poles. There is no such thing as a magnetic monopole.
Yes, horseshoe magnets have two poles just like bar magnets - a north pole and a south pole. The poles are located at the ends of the horseshoe shape.
The ends of a bar magnet are generally called the north and south poles. However they are more accurately known as the North Attracting pole and the South Attracting pole as the respective ends of the magnet are drawn to the Earths north and south poles.
They are both magnets, one small, one huge, and both with north and south poles.
north and north or south and south (red, red) (blue, blue)
You now have 2 bar magnets, each with half the magnetic force of the original.
They have the strongest magnetic forces :) precious
The magnetic field around a bar magnet emanates from its north pole and loops around to its south pole, creating a characteristic field pattern that can be visualized with iron filings or magnetic field lines. When two bar magnets interact, opposite poles (north and south) attract each other, while like poles (north-north or south-south) repel each other. This interaction results in a force that can cause the magnets to either come together or push apart, depending on their orientation. The strength of the interaction is influenced by the distance between the magnets and their magnetic strength.