Electrical burns
electrical burns
electrical burns
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.
..using the formula Voltage(V)=Current(I) * Resistance(R) .. we can get the result ...current will be 5 Ampere
A series circuit is where there is only one path for the current. As a result, and as a direct consequence of Kirchoff's current law, the current at every point in a series circuit is the same. The two bulbs have the same current flowing through them.
Resistors are components in a circuit that try to limit the flow of electricity passing through them. They are designed to impede the current and create a voltage drop as a result.
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.
Poor connections could result in arcing; the transformer could be overloaded as well, resulting in more current flowing through them than designed.
An increase in the current through a bulb will increase its light output because more current means more electrons passing through the filament, which generates more heat and light. Conversely, a decrease in current will result in lower light output as there are fewer electrons flowing through the filament to produce light.
When the current through the conductor is reversed, the magnetic field around the conductor will also reverse. As a result, the compass needle in Figure 7-11 will deflect in the opposite direction compared to when the current was flowing in the original direction.
The energy in a current-carrying coil is stored in the form of magnetic energy in the magnetic field produced by the coil. This magnetic energy is a result of the interaction between the current flowing through the coil and the magnetic field it generates.
As voltage is increased, the electric current in a wire also increases because the relationship between voltage, current, and resistance is described by Ohm's Law (V = IR). If resistance remains constant, a higher voltage will result in a higher current flowing through the wire.