ZapperZ said:
While there is no conservation of "mass", there is still a conservation of momentum. You're digging even deeper into the hole with this. You haven't addressed how we could easily stop or transfer (or even detect) something with moviing (at c no less) having an "infinite inertial mass".
Let us try another way. Instead of answering questions about INERTIAL MASS OF photon, I will ask a question about that.
1. We start with a definition from Wikpedia
http://en.wikipedia.org/wiki/Mass
"Inertial mass is a measure of an object's resistance to changing its state of motion when a force is applied. An object with small inertial mass changes its motion more readily, and an object with large inertial mass does so less readily".
2. We start with simplified situation, when all processes are elastic and particles are not destroyed.
3. Consider an electron first. When its speed is very slow, its resistance to changing its state of motion when a force is applied is very weak, and according definition, its inertial mass is small and equal to its regular mass.
4. When speed of electron approaching to the speed of light, for example v = 0.999999999*c, it becomes very difficult to change absolute value of its speed. We may apply huge force for long time, but change of its speed would be mizerable. For example v = 0.999 999 999 5*c instead of v = 0.999 999 999*c. in this case its resistance to changing its state of motion when a force is applied is very strong, and according definition, its inertial mass is large.
5. Consider photon. We may try whatever we can do in order to change absolute value of its speed, however, absolute value of its speed remains the same v = c. That means its resistance to changing its state of motion when a force is applied is EXTREMELY strong.
6. Now, my question is. What is INERTIAL MASS of the object, described in section #5? . Note: use definition of inertial mass from Wikpedia or from another source.
Possible answers:
1. Mie = 0
2. 0 < Mie < infinity
3. Mie = infinity
4. Anything else
ZapperZ said:
Show me how a Compton effect experiment is consistent with this.
In Compton effect experiment we may change photon direction, wavelenght, but its absolute speed remains the same v = c.