You're going for "superconductor", but your appreciation of the phenomenon
of superconductivity is fundamentally wrong, and your description is incorrect.
A superconductor is not a substance that has very low resistance at low temperature.
It's a substance that at sufficiently low temperature loses all resistance, and its
resistance becomes zero. Just plain zero.
Once an electric current is circulating in a superconducting loop and the ends of the
loop are connected together, the current keeps on circulating without any batteries
or power supply as long as the loop stays cold enough. That can be days, or weeks,
or months, during which time the current travels around the entire loop literally millions
of times, without additional input and without loss.
When current passes through a conductor, the electrons in the conductor collide with the atoms, creating resistance. This resistance causes the electrons to lose energy in the form of heat, which increases the temperature of the conductor.
Factors that can slow down an electrical current include resistance in the conductor, length of the conductor, and presence of any insulating materials. Resistance converts electrical energy into heat, reducing the current flow. Longer conductors offer more resistance to the flow of electrons, which slows down the current. Insulating materials can also impede the flow of electrons in a circuit.
The electric current encounters resistance while flowing through a conductor, which results in the conversion of electrical energy into heat. This resistance is impacted by factors like the material of the conductor and its dimensions.
Copper is a good conductor of electric current due to its high electrical conductivity. It is commonly used in electrical wiring and circuitry because it allows electricity to flow with low resistance.
Nylon is an insulator because it does not conduct electricity. It has high electrical resistance, which prevents the flow of electrical current through it.
When current passes through a conductor, the electrons in the conductor collide with the atoms, creating resistance. This resistance causes the electrons to lose energy in the form of heat, which increases the temperature of the conductor.
The three electrical quantities are current voltage and resistance. Current is measured in amperes (A) and is the rate at which electricity flows through a conductor. Voltage is measured in volts (V) and is the electrical force pushing the current through the conductor. Resistance is measured in ohms () and is the opposition to the flow of current. Current - measured in amperes (A) Voltage - measured in volts (V) Resistance - measured in ohms ()
The only limit on how much current the conductor can carry, regardless ofthe weather, is the amount of current that causes the conductor to melt.The current in such a conductor depends on the voltage between its ends,and on the resistance of the conductor. The resistance of the conductor issomewhat less when it's cold, so a given voltage would result in more current.
Factors that can slow down an electrical current include resistance in the conductor, length of the conductor, and presence of any insulating materials. Resistance converts electrical energy into heat, reducing the current flow. Longer conductors offer more resistance to the flow of electrons, which slows down the current. Insulating materials can also impede the flow of electrons in a circuit.
electric current
The electric current encounters resistance while flowing through a conductor, which results in the conversion of electrical energy into heat. This resistance is impacted by factors like the material of the conductor and its dimensions.
An electrical conductor may heat up due to excessive current passing through it, which increases its resistance and generates heat. Poor connections, overloading, or inadequate conductor size can also cause heating. This can lead to a potential fire hazard if not addressed.
Copper is a good conductor of electric current due to its high electrical conductivity. It is commonly used in electrical wiring and circuitry because it allows electricity to flow with low resistance.
When the resistance is 960 ohms and the current is 2 amperes, we can use the formula for inverse variation: ( current \times resistance = constant ). Thus, ( 2 \times 960 = constant ), which is ( 1920 ). So, if the resistance changes to a new value, we can find the new current by dividing the constant by the new resistance.
Nylon is an insulator because it does not conduct electricity. It has high electrical resistance, which prevents the flow of electrical current through it.
Resistance, or electrical resistanceResistance, or electrical resistanceResistance, or electrical resistanceResistance, or electrical resistance
Electrical resistance is measure in Ohms. A function of voltage divided by current. It is also dependant on the length and cross sectional area of the conductor.