I haven't studied this for awhile, but... I assume by cell, you mean a voltage supply, like a battery. It depends on what else is in the circuit. If your circuit has a typical amount of resistance, then connecting the cells in series (as opposed to in parallel) will result in the largest voltage. Higher voltage means greater current across a resistor. However, if the resistance of the circuit is very low (like in a short circuit), then your batteries' own internal resistance may be the most significant factor, and batteries arranged in parallel may be able to sustain a higher current.
The ability of light to cause electron movement and electric current is known as the photoelectric effect. When photons of light strike a material, they can transfer their energy to electrons, causing them to be ejected from the material, which can then result in the generation of an electric current.
conclusion of electric current
No, cells do not push electric current harder around a circuit. Electric current is driven by the voltage difference between the cells. Adding more cells in series increases the voltage, which can result in more current flowing through the circuit, but the cells themselves do not push the current harder.
When an electric current is flowing through a wire, it generates heat due to the resistance in the wire. When the current is suddenly cutoff, there is no longer a source of energy to maintain that heat, so the wire begins to cool down. This cooling effect is a result of the wire losing energy in the form of heat to its surroundings.
When charges move along a path, an electric current is produced. This flow of electric charge can result in the generation of a magnetic field around the path of the moving charges. The relationship between electric current and magnetic fields is described by the laws of electromagnetism.
The electric current
Electrons.
When an electric current is interrupted, the flow of electrons is halted and no electricity is able to pass through the circuit. This can result in devices or appliances not functioning properly until the current is restored.
That is the result of resistance in the wire. In energy terms, some of the energy in the electric current is converted into heat.
The ability of light to cause electron movement and electric current is known as the photoelectric effect. When photons of light strike a material, they can transfer their energy to electrons, causing them to be ejected from the material, which can then result in the generation of an electric current.
An electric current is the result of a voltage. Considering the individual charged particles (often these are electrons), they must be subjected to electric forces - for typically an attractive force to one side, and a repulsive force to the other.
The result of an electric current flowing through a wire is the movement of electric charge, typically in the form of electrons, from one point to another. This flow of charge creates a magnetic field around the wire and generates heat due to resistance in the wire material. The amount of current flowing is determined by the voltage applied and the resistance of the wire.
As electric current flows through the electrodes, they may experience heating due to resistance. This heating can cause the electrodes to degrade or even melt depending on the intensity and duration of the current. Additionally, the current may lead to chemical reactions at the electrode surface, resulting in oxidation or other forms of electrode degradation.
..using the formula Voltage(V)=Current(I) * Resistance(R) .. we can get the result ...current will be 5 Ampere
conclusion of electric current
Electric current can pass through a person if they provide a path for the flow of electricity, such as by touching a live wire. The human body is a conductor of electricity, so if there is a voltage difference across the body, current can flow through it. This can result in electric shock and potential injury or death.
When the switch is turned off in an electric circuit, there may still be residual electric current present in the wire due to capacitance or inductance effects. This residual current can result in a small sensation when the individual touches the wire. However, the sensation should be much weaker than when the circuit is actually active.