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#AlphaPhoenix Experiment: Another New Theory |#Veritasium Big Misconception about Electricity Part 6
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For the first time, Longitudinal Electromagnetic wave (LEMW) is formulated as #StandingWave in this video in studying some transient effects of electric current observed by #AlphaPhoenix (17 Dec. 2021) in a DC circuit, although LEMW seems rare in theoretical studies of EM waves.
It noted that a tranist time is introduced in transmission line theory, T=D/v, where v is the speed of the DC signal propagation, usually close to light speed. Nevertheless, it appears that no theoretical explanation for the transit time has been proposed until now. Besides, the theory for transmission lines are based on EM wave propagation, along the conductors, not inside the conductor. Thus, my proposal here seems imperitive for understanding the related phenomena.
I have been thinking about Electromagnetic Longitudinal Wave for a long time in order to explain how electricity travels in conductor wires at speed of light. That's why I was very excited to see the oscillations in #AlphaPhoenix's new experiment published on 17 Dec. 2021. In fact, I had illustrated this type of experiments and their results in my Talk 4 on The Poynting Poker, although I didn't discuss whether any oscillations can be observed experimentally.
So, here is the first theoretical explanation for the observed oscillations in the detected currents by Alpha-Phoenix. Here, I have formally proposed for the existence of Transient Electromagnetic Longitudinal Wave in conductor wires, although the magnetic field is circular around a wire and hence is perpendicular to the direction of the wave.
I hope this new idea can be used to explain many related phenomena in electricity. In particular, the speed of electricity is not determined by the conventional transvers waves predicted by Maxwell Equations in the 19th century.
References
1. Bruhn, G. W., Can Longitudinal Electromagnetic Waves Exist? Journal of Scientific Exploration, Vol. 16. No. 3, pp. 359-362 (2002)
" Plane and spherical longitudinal electromagnetic waves do not exist."
2. Longitudinal fields in electromagnetic waves, V.G. Niziev, A.V. Nesterov
Institute on Laser and Information Technologies of Russian Academy of Sciences
Shatura, Moscow Region, 140700, RUSSIA.
3. Longitudinal electromagnetic waves with extremely short wavelength.Denis Sakhno, Eugene Koreshin, and Pavel A. Belov. Phys. Rev. B 104, L100304 (2021)
"Electromagnetic waves in vacuum and most materials have transverse polarization. Longitudinal electromagnetic waves with an electric field parallel to the wave vector are very rare and appear under special conditions in a limited class of media, for example, in plasmas. In this Letter, we study the dispersion properties of an easy-to-manufacture metamaterial consisting of two three-dimensional cubic lattices of connected metallic wires inserted one into another, also known as an interlaced wire medium. It is shown that the metamaterial supports longitudinal waves at an extremely wide frequency band from very low frequencies up to the Bragg resonances of the structure. The waves feature unprecedentedly short wavelengths comparable to the period of the material. The revealed effects highlight a spatially dispersive response of the interlaced wire medium and provide a route toward generating electromagnetic fields with strong spatial variations. "
(Remark: Only the title is relevant, the rest is for fun.)
It noted that a tranist time is introduced in transmission line theory, T=D/v, where v is the speed of the DC signal propagation, usually close to light speed. Nevertheless, it appears that no theoretical explanation for the transit time has been proposed until now. Besides, the theory for transmission lines are based on EM wave propagation, along the conductors, not inside the conductor. Thus, my proposal here seems imperitive for understanding the related phenomena.
I have been thinking about Electromagnetic Longitudinal Wave for a long time in order to explain how electricity travels in conductor wires at speed of light. That's why I was very excited to see the oscillations in #AlphaPhoenix's new experiment published on 17 Dec. 2021. In fact, I had illustrated this type of experiments and their results in my Talk 4 on The Poynting Poker, although I didn't discuss whether any oscillations can be observed experimentally.
So, here is the first theoretical explanation for the observed oscillations in the detected currents by Alpha-Phoenix. Here, I have formally proposed for the existence of Transient Electromagnetic Longitudinal Wave in conductor wires, although the magnetic field is circular around a wire and hence is perpendicular to the direction of the wave.
I hope this new idea can be used to explain many related phenomena in electricity. In particular, the speed of electricity is not determined by the conventional transvers waves predicted by Maxwell Equations in the 19th century.
References
1. Bruhn, G. W., Can Longitudinal Electromagnetic Waves Exist? Journal of Scientific Exploration, Vol. 16. No. 3, pp. 359-362 (2002)
" Plane and spherical longitudinal electromagnetic waves do not exist."
2. Longitudinal fields in electromagnetic waves, V.G. Niziev, A.V. Nesterov
Institute on Laser and Information Technologies of Russian Academy of Sciences
Shatura, Moscow Region, 140700, RUSSIA.
3. Longitudinal electromagnetic waves with extremely short wavelength.Denis Sakhno, Eugene Koreshin, and Pavel A. Belov. Phys. Rev. B 104, L100304 (2021)
"Electromagnetic waves in vacuum and most materials have transverse polarization. Longitudinal electromagnetic waves with an electric field parallel to the wave vector are very rare and appear under special conditions in a limited class of media, for example, in plasmas. In this Letter, we study the dispersion properties of an easy-to-manufacture metamaterial consisting of two three-dimensional cubic lattices of connected metallic wires inserted one into another, also known as an interlaced wire medium. It is shown that the metamaterial supports longitudinal waves at an extremely wide frequency band from very low frequencies up to the Bragg resonances of the structure. The waves feature unprecedentedly short wavelengths comparable to the period of the material. The revealed effects highlight a spatially dispersive response of the interlaced wire medium and provide a route toward generating electromagnetic fields with strong spatial variations. "
(Remark: Only the title is relevant, the rest is for fun.)
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