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...
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.
The higher-voltage winding has more turns (therefore its conductor will be longer) than the lower-voltage winding and, because it will carry less current, its conductors will have a lower cross-sectional area. Consequently, the higher-voltage winding will have a higher resistance than the lower-voltage winding.
yes more voltage
number of turns......... If turns is more than more impedance..
The voltage present in a power grid line is more than enough to kill you.
i have no idea but maybe this is a possibility voltage is inversely proportional to current the voltage in the primary coil is lower than in the secondary therefore the current in the primary coil is higher than in the secondary coil in order to reduce energy lost in the primary coil, the resistance is lowered by increasing the cross-section area of the coil as R is inversely proportion to area So maybe it is thicker to reduce energy lost in the form of heat, thus making the transformer more efficient
There more thin filaments than thick filaments in smooth muscle. The ratio is of the thin to thick filaments in the smooth muscle is approximately 15:1.
Primary winding carry more current. We measure the current in one single wire, so no of turns are 1, in secondary the no of turns are higher. so, obviously it has higher voltage then this wire. so, finally as per the transformer rule the secondary carry lesser current than primary.
If the applied voltage is greater than maximum forward voltage, the diode will get damaged..
Feeds voltage to what? More than likely it is red.
The twin moose type of conductor has by far the greatest diameter of any conductor. This allows it to carry more voltage than other types without melting or shorting. Therefore, it is the approved type of conductor for extra high voltage lines.
To help people carry their stuff instead of having to carry it themselvesIn order to carry more things.