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{{Infobox paper
{{Infobox paper
| title = Maxwell?s Equations: A Serious Flaw
| title = Maxwell's Equations: A Serious Flaw
| url = [http://www.naturalphilosophy.org/pdf/abstracts/abstracts_2377.pdf Link to paper]
| url = [http://www.naturalphilosophy.org/pdf/abstracts/abstracts_2377.pdf Link to paper]
| author = [[Joseph F Cuny]]
| author = [[Joseph F Cuny]]
| keywords = [[maxwell equations]]
| keywords = [[maxwell equations]]
| published = 2009
| published = 2009
| journal = [[None]]
| num_pages = 3
| num_pages = 3
}}
}}
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==Abstract==
==Abstract==


Comparison of Maxwell?s Equations with Faraday?s work (the foundation of Maxwell) shows the equations do not describe electromagnetic waves; they only describe the associated field intensities. By contrast, Faraday?s work shows that an electromagnetic wave is a sequence of magnetically coupled photons where each photon is formed of a double loop (a figure eight) electric field with a magnetic field coating or sheath. The photons interact with and travel on Faraday?s electric fields that permeate otherwise ?empty space?. The physical size of a given photon depends on its energy and its interaction with the electric fields in the local environment. In addition, due to the magnetic sheath a photon can exchange energy with various atoms/ions. Finally there is a brief discussion of a critical difference between physical and mathematical waves, a difference known to many students but apparently forgotten by most scientists.
Comparison of Maxwell's Equations with Faraday's work (the foundation of Maxwell) shows the equations do not describe electromagnetic waves; they only describe the associated field intensities. By contrast, Faraday's work shows that an electromagnetic wave is a sequence of magnetically coupled photons where each photon is formed of a double loop (a figure eight) electric field with a magnetic field coating or sheath. The photons interact with and travel on Faraday's electric fields that permeate otherwise ?empty space?. The physical size of a given photon depends on its energy and its interaction with the electric fields in the local environment. In addition, due to the magnetic sheath a photon can exchange energy with various atoms/ions. Finally there is a brief discussion of a critical difference between physical and mathematical waves, a difference known to many students but apparently forgotten by most scientists.


[[Category:Scientific Paper|maxwell s equations flaw]]
[[Category:Scientific Paper|maxwell s equations flaw]]
[[Category:Electromagnetism]]

Latest revision as of 20:17, 20 July 2026

Scientific Paper
TitleMaxwell's Equations: A Serious Flaw
Read in fullLink to paper
Author(s)Joseph F Cuny
Keywordsmaxwell equations
Published2009
No. of pages3

Read the full paper here

Abstract

Comparison of Maxwell's Equations with Faraday's work (the foundation of Maxwell) shows the equations do not describe electromagnetic waves; they only describe the associated field intensities. By contrast, Faraday's work shows that an electromagnetic wave is a sequence of magnetically coupled photons where each photon is formed of a double loop (a figure eight) electric field with a magnetic field coating or sheath. The photons interact with and travel on Faraday's electric fields that permeate otherwise ?empty space?. The physical size of a given photon depends on its energy and its interaction with the electric fields in the local environment. In addition, due to the magnetic sheath a photon can exchange energy with various atoms/ions. Finally there is a brief discussion of a critical difference between physical and mathematical waves, a difference known to many students but apparently forgotten by most scientists.