um i dont know the answer
The configuration of all lines of force around a magnet is called a magnetic field. The magnetic field represents the way in which magnetic forces are distributed in the space surrounding a magnet.
magnetic field. This is the area around a magnet where its magnetic influence or force can be detected or felt.
The magnetic field is the space around a magnet where its influence can be detected. This field exerts a force on other magnets or on moving charges. It is strongest closest to the magnet and decreases in strength as you move further away.
Magnets have magnetic fields that extend into the space around them. When two magnets are brought close together, these fields interact with each other, resulting in a force of attraction or repulsion between the magnets. This force occurs even when the magnets are not in direct contact with each other.
The space around a magnet where its magnetic influence can be felt is called the magnetic field. It is the region in which magnetic forces are experienced due to the presence of the magnet.
The space surrounding a magnet in which the magnetic force acts is called a magnetic field. The magnetic field is the region where magnetic forces are generated and can influence other magnetic materials or moving charges.
The configuration of all lines of force around a magnet is called a magnetic field. The magnetic field represents the way in which magnetic forces are distributed in the space surrounding a magnet.
No. It is strongest at the poles.
magnetic field. The magnetic field is the region in which the magnetic force generated by the magnet can exert influence on other objects or materials.
magnetic field. This is the area around a magnet where its magnetic influence or force can be detected or felt.
In space, a magnet works the same way as it does on Earth. A magnet creates a magnetic field around it that attracts or repels other magnetic materials. This is because the movement of charged particles within the magnet creates a magnetic force. In space, the lack of air or gravity does not affect the magnet's ability to create a magnetic field.
The magnetic field is the space around a magnet where its influence can be detected. This field exerts a force on other magnets or on moving charges. It is strongest closest to the magnet and decreases in strength as you move further away.
The equation for calculating the magnet pull force is given by: F (B x A x N) / (2 x 0) Where: F is the magnet pull force B is the magnetic field strength A is the area of the magnet's pole N is the number of turns in the coil 0 is the permeability of free space
Faraday, proposed lines of flux and lines of force.
magnetic pull
The space around a magnet where the force of the magnet can act is the space occupied by the magnetic field. Alternatively we say that the magnetic field acts in the space around a magnet. That is a very qualitative statement with little predictive value. More predictive value is contained in a statement that the strength of the magnetic field at any position in the vicinity of a magnet is measured by the torque which is exerted on a small magnet moment (compass) place in the vicinity of a magnet. This, recorded with the direction the test compass points is actually a mapping of the magnetic field of a magnet. As a side note, if carefully measured one discovers that strength of the field around a magnet decreases as the inverse cube of the distance when far from the magnet. The field is mostly in the volume near the magnet but the weakening field continues to exist at all distances from the magnet.
Magnetic domains are microscopic areas of a solid where the atoms all have their magnetic moments aligned. If these domains are randomly aligned then a ferromagnetic material like iron or nickel will not have any permanent magnetism. If these domains start to align with each other the bulk material will show permanent magnetism. The area around a magnet where the force acts is the magnetic field.