No, the resistance in a circuit does not change when voltage changes. Resistance is an inherent property of the circuit.
Resistance is a completely different quantity to capacitance, resistance being measured in ohms and capacitance in farads. So they are 'apples and oranges'. You should be asking, 'What happens if capacitive reactance (in ohms) is larger than resistance?'. And one answer would be that the phase angle will be greater than 45 degrees. There are other answers, too, but it depends what you want to know,
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Conductors have low resistance. Recall Ohm's law. The higher the conductor resistance, the greater the voltage drop along the conductor, and the less voltage that is available for the load. The conductor resistance is a resistance in series with the load. Also, higher conductor resistance results in more electrical power being converted into heat, warming up the conductors. This is calculated with the formula P=I2R. The greater the resistance, the greater the power wasted heating the conductors.
All one can say without more information is that it is less than 1 and greater than zero.
ohms law states V = I*R. If I is to remain the same, and R is increased, the voltage must also increase.
An increase in voltage causes a greater electric current to flow in a circuit, assuming the resistance remains constant, based on Ohm's Law. This relationship is described by Ohm's Law as V=IR, where V is voltage, I is current, and R is resistance.
The length of an electric circuit can vary depending on factors such as voltage, current, and wire gauge. In general, the longer the circuit, the higher the resistance and the greater the loss of electrical energy. It is recommended to keep electric circuits as short as possible to minimize energy loss and ensure efficient operation.
Resistance affects intensity by limiting the flow of electric current in a circuit. According to Ohm's Law (V = IR), for a given voltage, an increase in resistance results in a decrease in current, which in turn reduces the intensity of the electrical signal or power output. Essentially, higher resistance leads to lower intensity, while lower resistance allows for greater intensity.
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One example of inherent resistance is antibiotic resistance in bacteria. Some bacteria naturally possess genes that allow them to survive exposure to certain antibiotics, reducing the effectiveness of those drugs in treating infections. This inherent resistance can make it challenging to treat bacterial infections and necessitates the development of new antibiotics.
resistance to the flow of electrical current in the circuit. It is a measure of how much opposition the circuit presents to the flow of electricity. The higher the number of ohms, the greater the resistance in the circuit.
To raise the temperature difference without changing the current, you can increase the resistance in the circuit. This can be done by adding additional resistors in series, using a material with higher resistance, or by adjusting the configuration of the circuit to increase the overall resistance. By increasing the resistance, the same current will produce a greater voltage drop across the resistors, resulting in a higher temperature difference.
To determine if the voltage in circuit A or B is greater, we need to consider the components and configuration of each circuit. If circuit A has a higher voltage source or lower resistance compared to circuit B, then A will have a greater voltage. Conversely, if circuit B has a higher voltage source or lower resistance, it will have the greater voltage. Without specific details about the circuits, it's impossible to definitively answer the question.
An electric current relies on several things. First, there must be a continuous connection of conductors. Then there must be a voltage or a potential difference between two parts of a circuit. It is the voltage that causes electrons to move, so generating an electric current. The amount of current depends on both the voltage and the resistance of the circuit. The higher the voltage, the greater the current. The higher the resistance, the lower the current will be.
lowest resistance
I=V/R The smaller the resistance the greater the amperage.
Flow of current decreases proportionately.