When the ends of a wire are connected to a battery, the battery does not produce magnetic fields in the wire. Instead, it generates an electric current by creating a potential difference that drives electrons through the wire. While the flow of current can create magnetic fields around the wire, the battery itself does not directly produce these fields; they are a result of the electrical current flowing through the wire.
Both ends of the battery are connected, to make a complete circuit.
Because without both ends connected there can not be a flow of electrons from one end of the battery to the other.
There are two circuits on the battery and motor. One wire is take which have four ends. The wire is connected on the desired circuits.
It may do this if you have the leads to the meter connected to the wrong ends of the battery.
You would short out the battery. If it was a car battery capable of 300 amps and the wire was big enough, the battery could explode.
Yes, both ends of a battery should be connected in a circuit to create a continuous flow of electric current. When one end of the battery is connected to one terminal of a component and the other end to the other terminal, a closed circuit is formed, allowing electricity to flow and power the device.
This would be an Electromagnet...... If the battery is disconnected, then the iron bar will become a permanent magnet.
For current to flow through the lamp, there must be a potential difference (voltage) applied across opposite ends of that lamp.
An electromagnet is a device that produces a magnetic field with the use of DC electricity. A simple electromagnet has a coil of wire wrapped around an iron core. A simple experiment would be to wrap a copper wire around an iron nail then connect both ends of the wire to a small battery. You will notice the nail is magnetized as long as the battery is connected.
An electromagnet is a device that produces a magnetic field with the use of DC electricity. A simple electromagnet has a coil of wire wrapped around an iron core. A simple experiment would be to wrap a copper wire around an iron nail then connect both ends of the wire to a small battery. You will notice the nail is magnetized as long as the battery is connected.
The circuit won't do anything until both terminals of the battery are connected to the correct [two different] points in the circuit. As long as either terminal of the battery remains disconnected, the circuit is "OFF".
Electrical Energy. When a copper wire is connected to two ends of battery, the electrons on the -ve terminal (with excess of electrons) move to +ve terminal (electron deficit terminal) to maintain an equlilbrium, hence the energy created by these movement of 'electrons' is called 'electrical' energy