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edit in a link to the mentioned preprint of arXiv.
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David Z
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According to relativity,nothing can break light barrier.But a recent preprint arXiv:1101.1840v2 is to showpreprint shows energy transmission of commercial electric power  (f=60Hz) is faster than light.  (It is not the drift velocity of electrons because energy transport depends on the electromagnetic field instead of charged particles). Moreover, the speed increases as its frequency decreases so the value is infinity for a direct current  (f=of=0).That is action at a distance  (instantaneous interaction)!

My question is whether it is possible to design a circuit to compare this speed with c in lab? For example,time-delay of an electromagnetic signal through a free space distance of 3m is 10^-8s$10^{-8}\text{ s}$. As to dirrectdirect current along a copper wire,however however,there there should be no delay. Is the difference detectable? I'm interested to the experiment because it is of substantial significance to measure the rate of electric power for electrical engineering not matter the result can exceed c or not.

According to relativity,nothing can break light barrier.But a recent preprint arXiv:1101.1840v2 is to show energy transmission of commercial electric power(f=60Hz) is faster than light.(It is not the drift velocity of electrons because energy transport depends on the electromagnetic field instead of charged particles). Moreover, the speed increases as its frequency decreases so the value is infinity for a direct current(f=o).That is action at a distance(instantaneous interaction)!

My question is whether it is possible to design a circuit to compare this speed with c in lab? For example,time-delay of an electromagnetic signal through a free space distance of 3m is 10^-8s. As to dirrect current along a copper wire,however,there should be no delay. Is the difference detectable? I'm interested to the experiment because it is of substantial significance to measure the rate of electric power for electrical engineering not matter the result can exceed c or not.

According to relativity,nothing can break light barrier.But a recent preprint shows energy transmission of commercial electric power  (f=60Hz) is faster than light.  (It is not the drift velocity of electrons because energy transport depends on the electromagnetic field instead of charged particles). Moreover, the speed increases as its frequency decreases so the value is infinity for a direct current  (f=0).That is action at a distance  (instantaneous interaction)!

My question is whether it is possible to design a circuit to compare this speed with c in lab? For example,time-delay of an electromagnetic signal through a free space distance of 3m is $10^{-8}\text{ s}$. As to direct current along a copper wire, however, there should be no delay. Is the difference detectable? I'm interested to the experiment because it is of substantial significance to measure the rate of electric power for electrical engineering not matter the result can exceed c or not.

"David Zaslavsky" and " Benjamin Horowitz" hope to edit in a link to the mentioned preprint of arXiv.
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According to relativity,nothing can break light barrier.But a recent preprint on arXiv:1101.1840v2 is to show energy transmission of commercial electric power(f=60Hz) is faster than light.(It is not the drift velocity of electrons because energy transport depends on the electromagnetic field instead of charged particles). Moreover, the speed increases as its frequency decreases so the value is infinity for a direct current(f=o).That is action at a distance(instantaneous interaction)!

My question is whether it is possible to design a circuit to compare this speed with c in lab? For example,time-delay of an electromagnetic signal through a free space distance of 3m is 10^-8s. As to dirrect current along a copper wire,however,there should be no delay. Is the difference detectable? I'm interested to the experiment because it is of substantial significance to measure the speedrate of electric power for electrical engineering not matter the result can exceed c or not.

According to relativity,nothing can break light barrier.But a recent preprint on arXiv is to show energy transmission of commercial electric power(f=60Hz) is faster than light.(It is not the drift velocity of electrons because energy transport depends on the electromagnetic field instead of charged particles). Moreover, the speed increases as its frequency decreases so the value is infinity for a direct current(f=o).That is action at a distance(instantaneous interaction)!

My question is whether it is possible to design a circuit to compare this speed with c in lab? I'm interested to the experiment because it is of substantial significance to measure the speed of electric power for electrical engineering not matter the result can exceed c or not.

According to relativity,nothing can break light barrier.But a recent preprint arXiv:1101.1840v2 is to show energy transmission of commercial electric power(f=60Hz) is faster than light.(It is not the drift velocity of electrons because energy transport depends on the electromagnetic field instead of charged particles). Moreover, the speed increases as its frequency decreases so the value is infinity for a direct current(f=o).That is action at a distance(instantaneous interaction)!

My question is whether it is possible to design a circuit to compare this speed with c in lab? For example,time-delay of an electromagnetic signal through a free space distance of 3m is 10^-8s. As to dirrect current along a copper wire,however,there should be no delay. Is the difference detectable? I'm interested to the experiment because it is of substantial significance to measure the rate of electric power for electrical engineering not matter the result can exceed c or not.

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How to measure faster than light electric energy?

According to relativity,nothing can break light barrier.But a recent preprint on arXiv is to show energy transmission of commercial electric power(f=60Hz) is faster than light.(It is not the drift velocity of electrons because energy transport depends on the electromagnetic field instead of charged particles). Moreover, the speed increases as its frequency decreases so the value is infinity for a direct current(f=o).That is action at a distance(instantaneous interaction)!

My question is whether it is possible to design a circuit to compare this speed with c in lab? I'm interested to the experiment because it is of substantial significance to measure the speed of electric power for electrical engineering not matter the result can exceed c or not.