How Electricity Actually Works

     Feynman was and will remain, my favorite lecturer (yeah: I'm that old).

     He mentioned often (and: I took to heart) his favorite Rule of Life: "Never stop learning!"

     For all his genius, he never grew overly confident in his beliefs.    The perfect obverse to the Dunning-Kruger sufferer.

     ie:  “I can live with doubt and uncertainty and not knowing. I think it is much more interesting to live not knowing than to have answers that might be wrong.”

     and: “I have approximate answers, and possible beliefs, and different degrees of certainty about different things, but I’m not absolutely sure of anything.”

     Tesla is probably my favorite innovator, who (despite the incessant, projectile vomit, from his day's naysayers), took the World, kicking and screaming, into the 20th century, with his inventions.

                                                  His thoughts: 

     “Anti-social behavior is a trait of intelligence in a world full of conformists.”

     “All that was great in the past was ridiculed, condemned, combatted, suppressed, only to emerge all the more powerfully, all the more triumphantly from the struggle.”

@the likes of czarivey, djones51, etal-

                                             Electrons flow?

     Try a little update there, at least to the last (20th) Century’s theories, Sparky!

https://www.quora.com/Are-photons-emitted-inside-a-wire-when-a-current-is-run-through-it

and:

https://van.physics.illinois.edu/qa/listing.php?id=2348

     For those interested in expanding their understanding: be certain to click on the MORE tabs, when applicable, to get the rest of the story.

                                         AGAIN: THEORIES!

Tesla said the following on the theory of relativity in a 1935 New York Times interview: "The theory, wraps all these errors and fallacies and clothes them in magnificent mathematical garb which fascinates, dazzles and makes people blind to the underlying errors.

Someone got the last laugh, and it was not Tesla. Einstein was both confident and humble. Tesla not so much.

The number of Wiki-Scientists on these pages, attempting to win the IG-Nobel Prize in Pseudo-Physics, is always amusing.

I believe the Wiki-Scientist award goes to those who post the most links and use the fewest of their own words.

I will say one thing though. Within a framework of audio, 99.99% if not 100% of this discussion is meaningless since 100+ year old physical models are far more than sufficient to describe anything happening unless you are the guy working on the semiconductor processes and device physics underpinning the chips and discrete semiconductor components no matter what you may read on a forum or in marketing literature which makes all of this an academic discussion in a non-academic forum.

the likes of czarivey, djones51, etal-

Electrons flow?

I never said electrons flow, though they do drift. This thread is a discussion about the weirdness or non intuitivness of electricity not the audibility of fuses and wires in sound systems. You like Feynman, here you go.

https://www.feynmanlectures.caltech.edu/II_27.html

While you're at it you might want to brush up on what a scientific Theory is, it's not Billy Bob Bodine guessing why beer has bubbles.

@deludedaudiophile

Thanks for the response.

Your comments are on par with things I have read since 2010 on the subject matter.

I read nothing in your post that differed from what the Late Ralph Morrison, Herman (agon member), the Late almarg (agon member), William J Beaty ( Misconceptions Spread By K-6 Textbooks: "Electricity"), Ian M. Sefton (School of Physics, The University of Sydney, Australia), and countless others I consider authorities on the subject matter.

I knew better when I said the load consumes energy. It really doesn’t. Energy is not consumed... I like your term the energy is transferred.

Question:

Is the Law of Physics considered theory? If yes then why not Ohms Law considered theory? I don’t think the Late Ralph Morrison considered it theory.

His words:

Storing or moving energy.

There is a common misconception that signals are carried in conductors. Somehow this association crosses over to the idea that conductors carry both signals and energy. A few simple calculations can show that this is a false idea. Consider a 50-ohm transmission line carrying a 5-volt logic signal. The initial current at switch closure is 500 mA. A typical trace is a a gram-mole of copper that has 6 x 10²³ copper atoms (Avogadro’s number). Each atom can contribute one electron to current flow. Knowing the charge on an electron makes it easy to show that the average electron velocity for 500 mA is a few centimeters per second. What is even more interesting is that only a trillion electrons are involved in this current flow. This means that only one electron in a trillion carries the current. This also says that the magnetic field that moves energy is not located in the conductors. The only explanation that makes sense is that energy in the magnetic field must be located in the space between two conductors.Conductors end up directing energy flow - not carrying the energy.

The electric field in the conductor that causes current flow presents a similar picture. For a transmission line trace 5 mils above a ground plane, the electric field strength in the space under the trace is about 49,000 V/m. The electric field inside the conductor might be 0.1 V per meter. Energy in an electric field is proportional to field strength squared. The ratio of the square of field strengths in and near a conductor is about 2.4 x 10¹¹. It is safe to say that there is very little electric or magnetic field energy in a trace or conducting plane. Since the energy is present and it is not in the conductors it must be in the space between the conductors. This is true for sine waves or square waves at all frequencies including dc. This one idea is not often discussed in circuit theory. This one idea solves most interference problems. This one idea is at the heart of a good circuit board layout. If the energy that represents information is carried in spaces it makes sense that we must keep these spaces free from interfering fields. The path should also control the characteristic impedance so there are controlled reflections. What we really need to do is supply a smooth path for logic energy flow.

The math part is over my head... Do you disagree with what Morrison said? Where would you differ?

Can we say as a matter of fact the signal does not travel in the conductor but rather outside the conductor in the space between the conductors?

Would you agree the signal voltage creates the EM wave? If not how would define, explain, it.

Also am I wrong in saying there are multitudes of varying signal EM waves in a typical analog recording? Vocal(s), musical instruments.. I would say it is quite complex to say the least. Am I wrong?

Best regards,

Jim