I've drawn a diagram that shows the speed of light towards a mirror is nearly infinite, and the speed of the reflected light is nearly zero.
This diagam, and two numbers, supports the theory that you never see a reflection in a mirror unless you are traveling at infinite velocity towards it.
So since you do see a reflection in a mirror, you must have infinite velocity.
Now, who wants to prove my theory is wrong? Remember, I have a diagram.
Don't make me use it. It will rock your socks.
While MD is away, the mice will play.
I’m going to take a minute and expound on MD’s postulate and the moving box scenario. He can correct me when he returns but I think that there needs to be more specifics in order for the smart guys to falsify it. I feel like you, all of the eight or ten, who are following closely and are interested in falsifying MD. Some of your arguments are that he has been falsified by scientific experiment and he (and I am) is (are) too dumb to see the obvious.
Then be more obvious. Link us to an experiment that fits the rules specifically (not just essentially), discuss what would be a valid experiment, or just offer a thought experiment in accord to the postulate and rules that he has utilized to do his math.
This is how I understand the postulate and moving box scenario:
The box looks like this:
The earth is not in the box. If the earth was in the box it would move with exactly the same characteristics as the box and not with the characteristics that are displayed by the real motion of the earth.
Space is empty except for the flash and the box.
There is a light flash emitted from the center of the box at an instant in time. The flash sticks to the point in space where it was emitted and expands spherically from there at c relative to that point in space.
The flash is not just a photon at every point around the sphere. It has enough duration to be detected, i.e. there are enough wave crests with enough frequency to be detected by his sensors. The waves are the kind of EM that one would expect to be emitted by a flash from a body at rest under the terms of SR. It is true that MD’s box is immediately not at rest relative to the point in space of emission, but we assume that the flash was properly emitted from “at rest” in SR’s perspective; the light sphere is expanding spherically at c.
This light flash is also exactly the kind of EM that would be encountered by an observer in a frame of reference moving at relativistic speed relative to the point in space where where the flash was emitted.
If there was anything in the make up of the box that would absorb spectral lines and if the light that is observed in your experiment has passed through the box and out into space then the light would be red or blue shifted according to the difference in the observers speed relative to the fixed point in space. Everything about the light waves would be according to the expectations of known science.
You would know the frequency and an expected time of arrival of MD’s flash. There is no reason you would observe it or measure it unless you were looking for it, but say you had the same receptors as MD has in his box and were looking. You would know the point in space of the emission, you would know the number of wave crests emitted, and you would know the point in time of the emission, everything that MD’s on-line computer knows. Then you could receive the specific light box flash on your own receptors and your computer would record the appropriate data.
MD has a perfect clock. This is not one of those clunky cesium clocks, it is a perfect clock and it measures time in a unit of measure compatible with the box and the motion of the light wave. It assumes the light wave was emitted from a specific point in space, at a specific point in time, with a specific number of wave crests and valleys, with a specific wave length, and that the precise Doppler Effect is expected to be observed based on the relative motion of the observer which is known. MD might object but he is gone right now, lol.
The on-board computer has adjusted for the precise motion of the box and can perform all of the SR calculations. It knows what the recorded data says in terms of the duration of time measured by MDs perfect clock on board. It knows the clock is in motion relative to the fixed point in the rest frame in SR and can adjust for known SR time dilation at the particular relative speed. It calculates the motion of the box using the data and a rule (law) below:
The law is that the light sphere has traveled faithfully at c in the rest frame and that it is the exact same light sphere that will be recorded on the box's receptors. This is a violation of SR if you consider the box to be a different frame from the emission and if you believe that the light sphere will act differently in SR than in MD, but it is in line with MD's postulate.
The on-board computer can do the Lorentz adjustments and give the expected SR results as to what the present location of the box should be, the motion of the box since the flash, and the length contraction and time dilation expected based on the calculations based on the relativistic Doppler Effect. It can calculate what time the clock should say and can adjust the data reading received and recorded to determine if the appropriate time passed according to SR.
The on-board computer can also go into a “consider yourself at rest mode”. That means that it can adjust all of the data to faithfully go back to the at rest position at the center of the light sphere and tell us exactly how long it has been since the flash so it can compare that to the on-board clock. We are not expecting any time dilation or length contraction but it will give us a set of data and exact predictions. If the results are not in accord with the predictions then MD was not correct. Let’s say that there is a tolerance of a small amount but not enough tolerance to make the results inconclusive if the motion is as SR predicted it.
Don’t say it, lol, I know I just wasted my time from the perspective of most of you, but I just thought there should be some more details.
What do I think the results of MD’s scenario would be in real life? Let’s go to what the box’s on-board computer would say if MD was correct:
It knows if the results are compatible with SR because it knows SR rules and does the appropriate SR calculations. It knows if the results are compatible with MD because it knows MD rules and does the appropriate MD calculations. If MD is correct the on-board computer will tell us that the light sphere was recorded to be expanding at c from its point of emission in the rest frame, and it will tell us that the results agree with MD’s predictions of the speed of the box.
If MD is wrong the on-board computer will tell us that the light sphere was detected to be expanding a c from its point of emission in the rest frame which both SR and MD predict. The on-board computer would be able to tell if the predicted time dilation and length contraction occurred as predicted at the exact relative speed of the moving box frame after appropriate adjustment and could then say the MD was wrong and SR was right.
It is a thought experiment because MD does not propose that it can be tested because we don’t have a light box to test it with.