Well, according to the superconductivital forces of quantum neutrinos in the brane field of M-theory, a cataclysmic extrapulation will occurr inside the magnetic singularity. Thus, we calculated (myself and my team) that the state of the frictive forces upon the two pieces of matter and antimatter within an infinitum of gravitational pulling, the monopolicular entities will create a mass fluxuation in the forces of superconductivity. In other words, they get pushed apart...DUH!
The compass is a magnet too; and magnets attract each other. More specifically, the north pole of one magnet is attracted by the south pole of another magnet.The compass is a magnet too; and magnets attract each other. More specifically, the north pole of one magnet is attracted by the south pole of another magnet.The compass is a magnet too; and magnets attract each other. More specifically, the north pole of one magnet is attracted by the south pole of another magnet.The compass is a magnet too; and magnets attract each other. More specifically, the north pole of one magnet is attracted by the south pole of another magnet.
In the context of magnets, "attract" refers to the force that pulls two opposite magnetic poles together. This force occurs when the north pole of one magnet is brought close to the south pole of another magnet, causing them to pull towards each other.
To determine the polarity of a magnet, you can use a compass. The end of the magnet that attracts the north pole of the compass is the magnet's north pole, and the end that attracts the south pole of the compass is the magnet's south pole.
The north pole of a magnet is attracted to the Earth's geographical North Pole, and the south pole is attracted to the Earth's geographical South Pole. You can also use a compass to find the north and south poles of a magnet - the needle will align with the north pole of the magnet.
You can identify the polarities of a round magnet using a compass. The end of the magnet that points north on the compass is the north pole of the magnet, while the end that points south on the compass is the south pole of the magnet.
their magnetic poles atract the opposite charge in order to optain the other charge. therefore they pull together to conect with a negative(-) and positive(+) because one end is filled with negative but needs positive and vise versa so when you put a + and + they don't need each other so the pushaway,same goes with negative poles
The pole attracted to the Earth's north pole, or another magnet's south pole.
To determine the poles of an unmarked magnet, you can use a known magnet or a compass. Bring the compass close to the magnet; the compass needle will point towards the magnet's south pole, as it is attracted to the north pole of the compass. Alternatively, you can use another magnet: the north pole of the second magnet will be attracted to the south pole of the unmarked magnet and repelled by its north pole. This interaction can help you identify the poles of the unmarked magnet.
That depends on which pole of the magnet it is moved close to. If it is brought close to the "South" pole of the magnet, the "North" pointer of the compass will be attracted to the magnet. If it is brought close to the "North" pole of the magnet, the "North" pointer of the compass will be repelled and will point AWAY from the magnet, while the "South" end of the compass pointer will point to the magnet.
South Pole of another Magnet or towards the South Pole of the Earth
The ends of a magnet are called the poles. There are two types of poles: the north pole, which attracts the south pole of another magnet, and the south pole, which attracts the north pole of another magnet.
Repel.
The north pole of one magnet will be attracted to the south pole of another magnet due to their opposite polarities. Like poles repel each other, while opposite poles attract.
To attract the south pole of a bar magnet, you would need to place it near the north pole of another magnet or in close proximity to the bar magnet's north pole. Since opposite poles attract, positioning the south pole of the bar magnet toward the north pole of the magnet shown will result in a pull toward the magnet. This attraction occurs because magnetic fields interact in such a way that opposite poles draw closer together.
Magnet sticks to another magnet when north pole of the first magnet approaches the south pole of the second magnet.
Get attracted and stick on together
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