Resistance in a wire varies directly as its length and inversely as the cross-sectional area of the wire. If the cross-sectional area is big, more electricity and hence more energy can pass through it. As an analogy consider two metal tubes each exactly 1 foot long. One of them has a cross-sectional area of 1 square inch. The other has a cross-sectional area of 6 square inches. Imagine also a big water tank with unlimited water in it. Now imagine the two one foot metal tubes are inserted into the side of the water tank at the same height . You will observe that water gushes out more from the 6 square inch tube compared to the water coming out of the 1 square inch tube.
Electric currents through conductors behave in a similar fashion.
Thick wires conduct more energy because they have lower resistance. Lower resistance means less energy is lost as heat while the electricity flows through the wire, allowing more energy to reach its intended destination. Thicker wires also have more surface area for current to flow through, further reducing resistance.
Thick copper wire has lower resistance than thinner wire, which allows more current to flow with less energy loss due to heating. This makes thick copper wire more efficient for carrying high currents without overheating. Additionally, thick copper wire is less prone to voltage drops over long distances compared to thinner wire.
A current will flow more easily through a thick wire compared to a thin wire because the thick wire has lower resistance, allowing electrons to flow more freely. Thicker wires also have more cross-sectional area for electrons to move through, reducing resistance further.
A thin wire has more resistance than a thick wire because it has less cross-sectional area for the flow of electrons. This results in more collisions between electrons and the wire's atoms, increasing resistance. Thicker wires allow more electrons to flow through, reducing resistance.
Thick wires have lower resistance to electricity compared to thin wires because they have more surface area for the current to flow through. This lower resistance allows for more efficient transmission of electricity with less energy loss in the form of heat.
Electricity moves more efficiently through thick wire because it has lower electrical resistance compared to thin wire. Thicker wire allows more electrons to flow through, reducing the resistance to the flow of electricity. Thinner wires have higher resistance, which can reduce the amount of current that can pass through.
Thick copper wire has lower resistance than thinner wire, which allows more current to flow with less energy loss due to heating. This makes thick copper wire more efficient for carrying high currents without overheating. Additionally, thick copper wire is less prone to voltage drops over long distances compared to thinner wire.
A thicker wire reduces electrical resistance (as does a shorter wire), so more energy will be transported if a thick wire connects a generator to its destination.
I don't know but I think it can't because there is more resistance in a thin wire and there is more space for electricity to flow in a thick wire but then again... I could be wrong...
A wire carrying electricity to a load. The wire conducts the energy from a source to a device. That connection in a complete circuit does work.
Thin wire.
yes
A current will flow more easily through a thick wire compared to a thin wire because the thick wire has lower resistance, allowing electrons to flow more freely. Thicker wires also have more cross-sectional area for electrons to move through, reducing resistance further.
Thick copper wire is good for carrying current because it has a lower electrical resistance compared to thinner wires. Lower resistance results in less energy loss through heat generation, making thick copper wire more efficient for transmitting large amounts of current without overheating.
No, thick wire can carry more current than thin wire because it has lower resistance. Thicker wires have more cross-sectional area, allowing electrons to flow more easily through the wire. This reduces the buildup of heat and minimizes the risk of overheating.
A thin wire has more resistance than a thick wire because it has less cross-sectional area for the flow of electrons. This results in more collisions between electrons and the wire's atoms, increasing resistance. Thicker wires allow more electrons to flow through, reducing resistance.
The situation is similar to a thick versus a thin water hose - water can flow more easily in a thick hose. In the case of a thick wire, there are more places where an electron can go through.
Thick wires have lower resistance to electricity compared to thin wires because they have more surface area for the current to flow through. This lower resistance allows for more efficient transmission of electricity with less energy loss in the form of heat.