The battery produces a voltage; if a conducting wire - or any circuit for that matter - is connected, a current will flow according to Ohm's Law, that is, the current is calculated as voltage / resistance.
A circuit with five resistors and a battery is constructed by connecting the resistors in series or parallel to create a closed loop for the flow of electric current from the battery through the resistors. The battery provides the energy for the current to flow through the resistors, which resist the flow of current. The arrangement of the resistors and the battery determines the overall resistance and current flow in the circuit.
Potential difference arises between two conductors when there is a difference in the charge content between them. So, to create it u can take out or pump in charges, which is the job done by a battery.
The battery sparks when connecting it because of a sudden flow of electricity between the battery terminals, which can create a small spark due to the high voltage and current passing through.
A coil is necessary when conducting electricity because it can create a magnetic field when current passes through it. This magnetic field is used in various applications such as transformers, motors, and generators to transfer energy efficiently. Additionally, coils can provide inductance, which is important in controlling the flow of current in circuits.
Using a stronger battery can increase the current flowing through the electromagnet, which in turn can increase the strength of the magnetic field produced by the electromagnet. So, a stronger battery can result in a stronger electromagnet.
An electric current is movement of electrons, no matter the source or cause.
A battery uses chemical reactions to create an electrical current. This occurs through the movement of ions between two electrodes (anode and cathode) in the battery, generating a flow of electrons that can be used as electrical power.
A circuit with five resistors and a battery is constructed by connecting the resistors in series or parallel to create a closed loop for the flow of electric current from the battery through the resistors. The battery provides the energy for the current to flow through the resistors, which resist the flow of current. The arrangement of the resistors and the battery determines the overall resistance and current flow in the circuit.
Potential difference arises between two conductors when there is a difference in the charge content between them. So, to create it u can take out or pump in charges, which is the job done by a battery.
The battery sparks when connecting it because of a sudden flow of electricity between the battery terminals, which can create a small spark due to the high voltage and current passing through.
i really don't know for sure but i think its yes
A coil is necessary when conducting electricity because it can create a magnetic field when current passes through it. This magnetic field is used in various applications such as transformers, motors, and generators to transfer energy efficiently. Additionally, coils can provide inductance, which is important in controlling the flow of current in circuits.
yes, in fact they are used for a type of Voltaic battery.
That completely depends on how much current is used by the circuit or device that's connected to the battery. For example, if there is no circuit or device connected to the battery, and no current is used, then the battery lasts for quite a long time. But if you lay a screwdriver across the battery terminals and create great balls of fire, then the charge on the battery may only last for 1/2 second.
A single object is called a cell; a battery consists of multiple cells. It works because the potato can act as a electrolytic substance, allowing current flow. However, the potato alone does not actually cause the current or voltage; it is the metals you use, which create a galvanic reaction.
Using a stronger battery can increase the current flowing through the electromagnet, which in turn can increase the strength of the magnetic field produced by the electromagnet. So, a stronger battery can result in a stronger electromagnet.
An electromagnet uses a battery to create a flow of electric current through a coil of wire. This current creates a magnetic field around the coil, which generates magnetic force. The strength of the magnetic force can be controlled by adjusting the amount of current flowing through the coil.