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The actual problem has specifically to do with both frames being stationary after the one frame has completed moving. This is where the problem is. Adding motion in, is post aut propter, to this completely mathematical challenge. That is, if we substituted D for distance, to replace VT, then the mathematically inequality would still be generated in X' = X - D |
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Where four art thou
in
The mechanics of Voigt's transformation are shown by the smaller green arrow.
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or, in ![]() Voigt's "proof" that the transformation was done correctly.
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coordinate X' = coordinate X - coordinate VT
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| Since the two shorter line segments have the same total length as the longest one. We are led to believe that the transformation was done correctly, It is not at all obvious then why his "proof" is wrong...as certainly the lengths of those line segments do add up properly. Voigt should not be transforming the line segment length of Granted, this point ALL X coordinate lengths start counting from 0,0,0 in their own frame. Voigt however, starts his length |



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AND
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This is the missing ten bucks... Voigt's vt length must be added and not subtracted from the x length |
Quite simply, due to it being a strictly mathematical process, then the     is merely    
![]() Conclusion - the Voigt transformations were malum in se in 1887 and are still wrong today and cannot be used as a proper basis for the accepted Theory of Relativity. Correspondingly, the validity of both time dilation and length contraction are reductio ad adsurdum. Without the Voigt equation, Relativistic conclusions are unsubstantiable. copyright steve waterman december 29, 2008 all rights reserved
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