An electromagnet can be any size from a few millimetres (magnetic tape or computer hard disc read/write heads) to several metres (industrial uses such as scrap yards for lifting steel, or research such as parts in particle accelerators and fusion reactors). The only limit to the upper size would be available materials and manufacturing technology.
Ugliness
a oreo cookie and a small eletromagnet
Provide amoving magnetic force field.
Is a eletromagnet with a six volt lantern battery really powerful or not?
The eletromagnet works by the energy flowing through the wire wrapped around the iron rod that causes the magnetic field
I believe that it's spelled electromagnet. An electromagnet is produced by electricity flowing through a wire wrapped around a needle 30 or more times.
An electromagnet works by using electricity to create a magnetic field. When a current flows through a wire wrapped around a core material such as iron, it generates a magnetic field around the wire. This magnetic field can attract or repel other magnetic materials, allowing electromagnets to be used in various applications such as in motors, generators, and magnetic resonance imaging (MRI) machines.
The cost of the largest electromagnet can vary significantly depending on its size, magnetic field strength, and custom specifications. Large-scale research electromagnets used in scientific applications can range from $1 million to $10 million or more.
because it is big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great and big and great.
An electromagnet would generally be better for lifting heavy metal objects as its magnetic strength can be easily controlled by adjusting the electrical current. A permanent magnet may not have sufficient magnetic strength to lift heavy objects, and it does not offer the flexibility of adjusting its magnetic force.
No, the strength of a magnetic field does not increase as you move away from the electromagnet. The strength of a magnetic field decreases with distance from the source, following the inverse square law. This means that the magnetic field weakens as you move further away from the electromagnet.
No.