DrGreg said:
...we don't believe there is any sensible answer that will apply apply between your "frame c" and a standard inertial frame, which is why everyone has been objecting. So it's up to you to prove us wrong...
This is in response to the impressive consensus that I must provide a satisfactory set of transforms relating my Frame c (moving at lightspeed) to standard inertial reference frames. These began at post #36 with starthaus. I think it’s obvious that I will not be forthcoming with these any time soon. Perhaps it would be worth the effort, but some of you are quite certain the task would be futile.
I hope it is safe to assume, since you are active in the Relativity forums, that you all believe that the speed of light is absolute, that time “really” dilates, that length “really” contracts and that simultaneity is relative.
Any thinking time dilation to be an illusion should have been convinced by the change in time captured between a still and a previously synchronized Cs clock returning from a round trip to other frames. Being covariant with velocity, length contraction is equally real, but to date there has been no direct way to capture that. A game of tag (between electron and positron) could fix that, as long as length contraction is real, all the way down to zero.
Thus, my OP suggesting photons are, though useful, superfluous to a model of remote contact through pinholes (photo-induced wormholes) mediated by path contraction to zero. The
pushback was loud and clear: Path contraction does not go to zero because Frame c is not a relativistic inertial reference frame (RIRF). Specifically, Frame c is disallowed because photons can never be “at rest”. I solved that. Frame c has uniform motion and all light travels at speed c, even when distance is zero.
Now, I am “burdened” with another task. Why? I am of the impression all Frames<c in uniform motion and with c=c’ are accepted as RIRFs. And a great accomplishment of SR is that it gives us that the laws of physics (including electricity and magnetism) are the same in all RIRFs.
But here’s the kicker. Suppose I take a year, become adept at these transforms, run into your "unsolvable" problem and in a flash of brilliance fix it? I then come back here and, by golly, you’re all impressed! Great, right? Then someone does the first spectral analysis of antihydrogen and there’s no spooky annihilation at a distance (illustration post #34). What's been accomplished? Nothing! No pinholes! I’m WRONG anyway!
Alternatively, I wait till that experiment is done. And son of a gun, they get all kinds of unexpected antihydrogen instability. A lot like Mills & Cassidy had with positronium (see post #16). Then someone finds matching gamma emissions from the antihydrogen
and from its remote illumination source. Pretty soon, folks like you (who are far more capable anyway) are busy fixing the transforms lickety-split. That’s more likely the way it’s going to work out.
Meanwhile, l’=ct’ is about my speed. A nice linear equation with slope c in every frame, even the limit as l’ goes to zero. With or without transforms, pinholes offer simplification and potential answers to many of the outstanding problems in physics today.