How do photon-electron transitions relate to frequency and motion?

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So, now I look at a peculiar situation with light photon motion and growth.. Can anyone comment on this thought?

Assume frequency is VERY important.

Then, E=Mc^2 might imply

E- M A'cf where
(a) A' is meters squared per sec, i.e., m^2/t (lower case m is meters!) and
(b) f is frequency, i.e., 1/t
(c) c is light velocity, m/sec

such that c^2 is identical in units to A'cf, i.e. (m^2/sec)(1/sec)(m/sec) =(m^2/sec^2)

So the ubiquity of photon-electron transitions lie in A' and f!
If A'f = c, then c^2 implies A'f =c. But if not, strange things come out of this..
 
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SdogV said:
So, now I look at a peculiar situation with light photon motion and growth.. Can anyone comment on this thought?

Assume frequency is VERY important.

Then, E=Mc^2 might imply

E- M A'cf where

How does one "imply" the other? What's the direct derivation from one to the other. It seems as if you simply made it up. And not only that, you're mixing the units with the symbol of the variable. This is very strange.

Zz.
 
ZapperZ said:
How does one "imply" the other? What's the direct derivation from one to the other. It seems as if you simply made it up. And not only that, you're mixing the units with the symbol of the variable. This is very strange.

Correction:
So the ubiquity of photon-electron transitions might lie in A' and f!
IF A'f = c^2, then small areas per unit time imply a high frequency, while large areas per unit time imply a small frequency.. Strange things come out of this when applied to mass "lifetimes" times frequency, i.e. (Kg/sec)(1/sec) = Kg.
 
SdogV said:
ZapperZ said:
How does one "imply" the other? What's the direct derivation from one to the other. It seems as if you simply made it up. And not only that, you're mixing the units with the symbol of the variable. This is very strange.

Correction:
So the ubiquity of photon-electron transitions might lie in A' and f!
IF A'f = c^2, then small areas per unit time imply a high frequency, while large areas per unit time imply a small frequency.. Strange things come out of this when applied to mass "lifetimes" times frequency, i.e. (Kg/sec)(1/sec) = Kg.

You never answered my question. What allows you to make the equality "A'f = c^2"? Physics doesn't involve making things up as you go along.

Please review the https://www.physicsforums.com/showthread.php?t=5374" before proceeding any further. You only have one chance left to address this clearly before this thread is closed.

Zz
 
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