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.
The stronger the magnetic field on your inductor the greater amount of current you will have flowing through your series circuit.
True. According to Ohm's Law, which states that current (I) is equal to voltage (V) divided by resistance (R) ( (I = V/R) ), a higher resistance results in less current for a given voltage. Therefore, as resistance increases, the current flowing through the circuit decreases.
lowest resistance
In a series circuit with a resistor and a capacitor connected to an AC supply, the current will lead the voltage due to the presence of the capacitor. This is because the capacitor will initially act as a short circuit for high-frequency AC signals, allowing current to flow through it before charging up. As the capacitor charges, the current will decrease, and the phase relationship between the current and voltage will change accordingly.
It depends on the resistance of everything connected between the terminals of the power supply. If the resistance is infinite or very high, there is little or no current. As the resistance becomes less, the current becomes greater. In general, the current through a circuit with 90 volts applied to it is [ 90 / R ], where 'R' is the resistance of everything across the 90-volt power supply.
The stronger the magnetic field on your inductor the greater amount of current you will have flowing through your series circuit.
Current i.e.rate of flow of charge when stops flowing in a circuit then fuse does not blows out. The only work of fuse is to blow away when the current starts flowing greater in magnitude than the rated current value.
The current in the light bulb will be greater when connected to the 200-v source compared to the 110-v circuit, assuming the resistance of the light bulb remains constant. This is because current is directly proportional to voltage in an electrical circuit according to Ohm's Law (I = V/R), so a higher voltage will result in a greater current flow through the bulb.
They both have the same current.
The trip coil has the whole circuit load amperage flowing through it. Thepurpose of the breaker is to only allow current up to its trip point. That is the only way that the breaker can sense if the current is within the limit rating. If the circuit load amperage becomes greater that the breaker rating it will trip. The trip coil that you refer to is a magnetic trip which senses the magnetic field that surrounds the wire. Breakers also have a thermal trip which senses a heat build up on the current flowing through it. If the breaker is in a high ambient temperature it will lower the rating on the breaker.
lowest resistance
In a series circuit with a resistor and a capacitor connected to an AC supply, the current will lead the voltage due to the presence of the capacitor. This is because the capacitor will initially act as a short circuit for high-frequency AC signals, allowing current to flow through it before charging up. As the capacitor charges, the current will decrease, and the phase relationship between the current and voltage will change accordingly.
Electrical current is equal throughout a series circuit.
It depends on the resistance of everything connected between the terminals of the power supply. If the resistance is infinite or very high, there is little or no current. As the resistance becomes less, the current becomes greater. In general, the current through a circuit with 90 volts applied to it is [ 90 / R ], where 'R' is the resistance of everything across the 90-volt power supply.
The current is greater than or equal to (6) divided by (the effective resistance of the circuit).
Flow of current decreases proportionately.
Voltage potential is the force that pushes electrical current through a circuit. The higher the voltage, the greater the potential for current flow. In other words, voltage drives the flow of current in a circuit.