Yes, but the actual speed of electron flow in DC current in a conductor is actually very slow compared to the speed of the current itself. As someone else pointed out, in AC current the net electron flow over time is zero since first they move one direction and then they move the other.Do electrons flow faster if the voltage increased . @ 480 volts = 4 times the speed 120 volts ?. @ 120 volts electrons at what speed in M P H ?
No, the greater voltage causes greater current (all other things being equal), which causes a greater current density, not speed. Electrons moving is current, not voltage.Do electrons flow faster if the voltage increased . @ 480 volts = 4 times the speed 120 volts ?. @ 120 volts electrons at what speed in M P H ?
If you increase the Voltage at the same current, you could think of the Voltage as the Potential Energy, PE is increased directly proportional.Do electrons flow faster if the voltage increased . @ 480 volts = 4 times the speed 120 volts ?. @ 120 volts electrons at what speed in M P H ?
Current isn't actually electrons moving. It's more like the transmission of charge.No, the greater voltage causes greater current (all other things being equal), which causes a greater current density, not speed. Electrons moving is current, not voltage.
As for current flow, think of a hose filled with marbles. Push a new marble in one end, a marble pops out of the other end. Not the same marble, but the effect is instant.
Yeah, something like 299,792,458,000 times slower, using David's number. I think you might want add some verys.Yes, but the actual speed of electron flow in DC current in a conductor is actually very slow compared to the speed of the current itself. ....
Just trying to keep it simple for the newbies.Current isn't actually electrons moving. It's more like the transmission of charge.
A better analogy is a Newton Pendulum, which allows people to visualize how matter can transmit energy without really moving at all.
Except in the impossible ideal case, there is indeed motion. Just over a very short distance compared to the size of the ball. (Relativity tells us that nothing can be infinitely rigid.)Current isn't actually electrons moving. It's more like the transmission of charge.
A better analogy is a Newton Pendulum, which allows people to visualize how matter can transmit energy without really moving at all.
Right. They don't move ... much.Except in the impossible ideal case, there is indeed motion. Just over a very short distance compared to the size of the ball. (Relativity tells us that nothing can be infinitely rigid.)
More to the point, all of the conduction electrons from one end or a uniform copper wire to the other move the same distance per unit time, unllike the balls in the Newtons Cradle.Right. They don't move ... much.
Let me be clear: the Newton Cradle analogy does not intende for the balls to represent electrons, atoms, charges, or any other particular thing involved in electricity. It is merely to point out another instance in which matter can transmit energy from one end of a thing to another, on a macroscale, without the transmitting matter having to journey the same distance the energy does. In one case it's kinetic energy, in another case it's electric, so the similarities end there.More to the point, all of the conduction electrons from one end or a uniform copper wire to the other move the same distance per unit time, unllike the balls in the Newtons Cradle.
(And I am referring to the instantaneous velocity, not just the average velocity of zero for AC.)![]()
In theory course, I've heard in an hour's time, DC will move an electron only a few feet. And in AC, the electron is basically just traveling back and fourth and only moving less than the diameter of a human hair.Do electrons flow faster if the voltage increased . @ 480 volts = 4 times the speed 120 volts ?. @ 120 volts electrons at what speed in M P H ?