MacM:
We're discussing your proposal here, not mine. Your proposal, as I have shown, assumes sychronisation of separated clocks, without proof.
I have explicitly made the opposite statement on around 10 separate occasions in this thread. Selective memory again.
I have never disputed that. But your method does not produce a valid synchronisation.
All of my statements were qualified. Your straw men are useless.
Here are the correct versions of the above statements:
1 - I stated clocks are operating correctly.
2 - I stated the clocks may run fast or slow compared to thier local reading, when measured in another reference frame.
3 - I claim each clock still has a 1 MHz standard, as measured locally.
4 - I claim there is no way of knowing the standards are still the same once the clocks move relative to each other.
5 - I claim the clocks are not synchronized, once they are moving.
6 - I claim they are synchronized by accident by your scheme, if they are stationary, or if absolute time exists.
Anything that is true. Yes.
No, it doesn't. As I have clearly shown.
B doesn't have the "same" 1 MHz standard. B has a local 1 MHz standard. A also has a local 1 MHz standard. You have not shown that these standards are the same when the clocks are in motion.
You just assume it without proof.
Circular argument.
We're not interested in how the standards compare at rest, but how they compare when the clocks are in motion. Remember?
False.
SRT is what you are trying to test and you assume it from the start.
We're discussing your proposal here, not mine. Your proposal, as I have shown, assumes sychronisation of separated clocks, without proof.
Lets see you claim that your B clock and A clock do not have useable tick rates measured locally in SRT. You don't dare.
I have explicitly made the opposite statement on around 10 separate occasions in this thread. Selective memory again.
If local rates aply in SRT calculation they are useable in the synchronization.
I have never disputed that. But your method does not produce a valid synchronisation.
[Rambling snipped. Cut to the chase.]
1 - You stated clocks are operating correctly.
2 - You state the clocks run fast or slow compared to thier local reading?????
3 - You claim each clock still has a 1 MHz standard.
4 - You claim there is no way of knowing the standards are still the same.
5 - You claim the clocks are not synchronized.
6 - You claim they are synchronized by accident.
You have flip flopped thorughout this thread.
All of my statements were qualified. Your straw men are useless.
Here are the correct versions of the above statements:
1 - I stated clocks are operating correctly.
2 - I stated the clocks may run fast or slow compared to thier local reading, when measured in another reference frame.
3 - I claim each clock still has a 1 MHz standard, as measured locally.
4 - I claim there is no way of knowing the standards are still the same once the clocks move relative to each other.
5 - I claim the clocks are not synchronized, once they are moving.
6 - I claim they are synchronized by accident by your scheme, if they are stationary, or if absolute time exists.
You are saying just anything you can think of to claim synchronization has not occured.
Anything that is true. Yes.
Since the local standards are both still 1 MHz "A's" SBM properly calibrates "B's" monitor of "A" to tick at the same rate
No, it doesn't. As I have clearly shown.
Good then B having the same 1 MHz standard can jproperly calibrate its monitor for "A".
B doesn't have the "same" 1 MHz standard. B has a local 1 MHz standard. A also has a local 1 MHz standard. You have not shown that these standards are the same when the clocks are in motion.
You just assume it without proof.
Circular argument.
You don't seem to get it. According to Relativity the local standard of 1 MHz is still the local standard. There is no differeance to record. That is the point here. For you to be correct and claim that the 1 MHz standard is no longer 1 MHz not only violates Relativity but would in fact become apparrent upon returning the clocks for comparision. i.e. - B is now actually 500 KHz and A is 1 MHz.
We're not interested in how the standards compare at rest, but how they compare when the clocks are in motion. Remember?
Relativity routinely declares things are the same and then declares they are different.
False.