Electric Current Does Not Flow Through Electrons. It Slides Over Them.

Electric Current Does Not Flow Through Electrons. It Slides Over Them.The standard picture is wrong. We are taught that current is a stream of electrons rushing through a copper pipe. If that were true, signals would crawl at millimeters per second. They don't. They fly at nearly the speed of light.A wire is not a pipe. It is a crystal lattice of electrons. Together, they create a continuous collective field — a membrane, a surface. This membrane is what we call $C(N)$.Electric current is not particles moving through particles. It is an electromagnetic wave $W(N)$ that glides over this membrane.We describe it as $W(N) = \{F(N), C(N), R(N)\}$.$F(N)$ is the wave front. It pushes the electron field.$C(N)$ is the compensation zone — the surface layer where electrons slightly shift. Textbooks call this the skin layer, but it is actually the field membrane itself.$R(N)$ is the rear. And here is the key to continuity: $R(N) \equiv F(N+1)$. The rear of one wave becomes the front of the next. No gap, no particle jump. A pure continuous wave.Think of water droplets on a glass window. The droplet does not go through the glass. It slides on its surface, held by surface tension. In the same way, the electromagnetic wave does not go through the electron body. It slides on the surface of its collective field.Inside the electron, nothing flows. Inside the wire, there is no energy transport. All energy is in the wave hugging the conductor, described by the Poynting vector $S = E \times H$. The conductor only guides it.For DC, the membrane is thick — the wave uses the whole cross-section. For AC, the skin effect squeezes the membrane to a thin surface layer. But in both cases, the mechanism is the same: sliding over, not penetrating through.This is why your phone charges instantly. Not because electrons travel from the socket to your phone, but because the wave $W(N)$ slides over the electron sea from $F(N)$ to $F(N+1)$ at light speed.We stopped thinking of current as traffic in a tunnel. We started thinking of it as a surfer on an electron field ocean.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-11-01
DOI
https://doi.org/10.5281/zenodo.23864902
Primary Topic
Quantum and Classical Electrodynamics
Type
article
Field-Weighted Citation Impact
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article

Electric Current Does Not Flow Through Electrons. It Slides Over Them.

Kolesnikov Igor
2 links
Zenodo (CERN European Organization for Nuclear Research)
Quantum and Classical Electrodynamics
article

Electric Current Does Not Flow Through Electrons. It Slides Over Them.

Kolesnikov Igor
article en

Abstract

Electric Current Does Not Flow Through Electrons. It Slides Over Them.The standard picture is wrong. We are taught that current is a stream of electrons rushing through a copper pipe. If that were true, signals would crawl at millimeters per second. They don't. They fly at nearly the speed of light.A wire is not a pipe. It is a crystal lattice of electrons. Together, they create a continuous collective field — a membrane, a surface. This membrane is what we call $C(N)$.Electric current is not particles moving through particles. It is an electromagnetic wave $W(N)$ that glides over this membrane.We describe it as $W(N) = \{F(N), C(N), R(N)\}$.$F(N)$ is the wave front. It pushes the electron field.$C(N)$ is the compensation zone — the surface layer where electrons slightly shift. Textbooks call this the skin layer, but it is actually the field membrane itself.$R(N)$ is the rear. And here is the key to continuity: $R(N) \equiv F(N+1)$. The rear of one wave becomes the front of the next. No gap, no particle jump. A pure continuous wave.Think of water droplets on a glass window. The droplet does not go through the glass. It slides on its surface, held by surface tension. In the same way, the electromagnetic wave does not go through the electron body. It slides on the surface of its collective field.Inside the electron, nothing flows. Inside the wire, there is no energy transport. All energy is in the wave hugging the conductor, described by the Poynting vector $S = E \times H$. The conductor only guides it.For DC, the membrane is thick — the wave uses the whole cross-section. For AC, the skin effect squeezes the membrane to a thin surface layer. But in both cases, the mechanism is the same: sliding over, not penetrating through.This is why your phone charges instantly. Not because electrons travel from the socket to your phone, but because the wave $W(N)$ slides over the electron sea from $F(N)$ to $F(N+1)$ at light speed.We stopped thinking of current as traffic in a tunnel. We started thinking of it as a surfer on an electron field ocean.

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 20%
Quantum and Classical Electrodynamics
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