the coil, it will attract this moveable plunger into the gap, thus completing the electrical circuit. This plunger can subsequently be attached to various mechanical parts, which, in turn, will cause them to move in a particular, defined direction. Depending on which end of the armature is connected to the solenoid, a pushing or pElectric motors are nothing more than is a mechanical device that switches electric energy into mechanical energy by passing an electric current through a wire loop contained within a magnetic field. Solenoids are universally used in all types of motors from power door locks to starters and is a round coil of insulated wire used to create a magnetic field in the atmosphere of this current.

Because a solenoid is a specially designed electromagnet in which a coil of wire is wrapped around a specifically shaped core made of steel or iron, it is an integral component in all sizes of motors.

Solenoids work like this: when electrical current goes through the loop of wire, a magnetic field builds up around it. A steel or iron path for this force to flow into significantly increases the strength of the magnetic field. Considering that magnetic energy attempts to take a specific path, flowing from the center of a coil, out one end, down the sides and then reversing that path. If a iron or steel core, called a solenoid, is shaped to fit this path, it will then direct the flow of magnetism through it.

If gaps are left in the core design, the magnetic flux will flow around the path until it is stopped by the resulting breach. The armature of a solenoid will fill the gap; thus, when the current flows through the coil, it will attract this moveable plunger into the gap, thus completing the electrical circuit. This plunger can subsequently be attached to various mechanical parts, which, in turn, will cause them to move in a particular, defined direction. Depending on which end of the armature is connected to the solenoid, a pushing or pu

create a magnetic field in the atmosphere of this current.

Because a solenoid is a specially designed electromagnet in which a coil of wire is wrapped around a specifically shaped core made of steel or iron, it is an integral component in all sizes of motors.

Solenoids work like this: when electrical current goes through the loop of wire, a magnetic field builds up around it. A steel or iron path for this force to flow into significantly increases the strength of the magnetic field. Considering that magnetic energy attempts to take a specific path, flowing from the center of a coil, out one end, down the sides and then reversing that path. If a iron or steel core, called a solenoid, is shaped to fit this path, it will then direct the flow of magnetism through it.

If gaps are left in the core design, the magnetic flux will flow around the path until it is stopped by the resulting breach. The armature of a solenoid will fill the gap; thus, when the current flows through the coil, it will attract this moveable plunger into the gap, thus completing the electrical circuit. This plunger can subsequently be attached to various mechanical parts, which, in turn, will cause them to move in a particular, defined direction. Depending on which end of the armature is connected to the solenoid, a pushing or p

h the loop of wire, a magnetic field builds up around it. A steel or iron path for this force to flow into significantly increases the strength of the magnetic field. Considering that magnetic energy attempts to take a specific path, flowing from the center of a coil, out one end, down the sides and then reversing that path. If a iron or steel core, called a solenoid, is shaped to fit this path, it will then direct the flow of magnetism through it.

If gaps are left in the core design, the magnetic flux will flow around the path until it is stopped by the resulting breach. The armature of a solenoid will fill the gap; thus, when the current flows through the coil, it will attract this moveable plunger into the gap, thus completing the electrical circuit. This plunger can subsequently be attached to various mechanical parts, which, in turn, will cause them to move in a particular, defined direction. Depending on which end of the armature is connected to the solenoid, a pushing or p

on or steel core, called a solenoid, is shaped to fit this path, it will then direct the flow of magnetism through it.

If gaps are left in the core design, the magnetic flux will flow around the path until it is stopped by the resulting breach. The armature of a solenoid will fill the gap; thus, when the current flows through the coil, it will attract this moveable plunger into the gap, thus completing the electrical circuit. This plunger can subsequently be attached to various mechanical parts, which, in turn, will cause them to move in a particular, defined direction. Depending on which end of the armature is connected to the solenoid, a pushing or p

the coil, it will attract this moveable plunger into the gap, thus completing the electrical circuit. This plunger can subsequently be attached to various mechanical parts, which, in turn, will cause them to move in a particular, defined direction. Depending on which end of the armature is connected to the solenoid, a pushing or pulling motion results. Very frequently, springs are employed to keep the plunger in an open position.

Electromagnetic motors are based on the basic rule of thumb that all current-carrying wire within a magnetic field contains a degree of mechanical force. The larger the motor and the larger the electromagnetic field, the more power is exerted. A row of check valves and solenoid switches can be used to harness this power in a controlled manner, depending on the direction and force required. The real power behind any motor is controlled by different factors including the amount of turns in the coil, the quantity of current flowing through it, the distance end to end of the coil and the magnetic superiority of the steel or iron used in manufacturing the moveable parts.

To conclude, by applying the basics of electromagnetic knowledge and by adapting the parts to withstand the relevant pressure, all motors, regardless of their size operate on this same scientific rule of thumb.