Magnetic field lines of a moving electron

AI Thread Summary
The discussion focuses on the magnetic field lines produced by a moving electron, specifically in straight-line motion and in relation to its intrinsic spin in a hydrogen atom. Participants seek visual representations and explanations similar to those of bar magnets, indicating a lack of accessible resources on this topic. Additionally, there is curiosity about the drift velocity of electrons in superconductors, contrasting it with typical low velocities in standard electrical wires. The assumption is made that drift velocity in superconductors is higher due to negligible resistance from electron-atom collisions. Overall, the thread highlights a need for clearer visual and conceptual understanding of electron behavior in magnetic fields and superconductivity.
QED-Kasper
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A moving electron's magnetic field lines.

How do the magnetic field lines of a moving electron in a straight line look? What about the magnetic field lines of a rotating hydrogen electron? I mean the magnetic field produced due to the electron's intrinsic spin and due to its movement in a line or around an atom. I have searched this forum and the internet and I couldn't find a picture or explanation. Does anyone have a link to a nice picture of this, like that of a bar magnet's magnetic field lines, or a good explanation?

Another perhaps more simple question I have is: what is a common drift velocity observed in a superconductor? I know its very low in the electrical wires in our house for example (0.05 mm /s ). I read that in a superconductor the resistance (which as I understand is caused by electrons colliding with atoms) is virtually 0. So I assume the drift velocity of electrons in a superconductor is relatively high.
 
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I am checking this thread for any answers every few hours since I made it (just to let you know).
 
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