[jeffreyH (OP)]

Read this then come back and tell me you know the answer.

http://spiff.rit.edu/classes/phys314/lectures/planck/planck.html

[jeffreyH (OP)]

So then Planck's constant can be derived from experiment. Fudge sundae anyone?

[jeffreyH (OP)]

If you were talking about the gravitational constant you would have a point. This distinction isn't trivial.

[jeffreyH (OP)]

OK so as was pointed out . Therefore in the case of the photon the energy equation becomes .

If we take our wavelength as L (1 light second) then we can show that . This 1 hertz wave then shows the direct relationship to the Planck constant.

Ok this may or may not post the Tex properly. If it does I will expand on this post.

In the above we have the expression h/t. If we multiply both numerator and denominator by the ratio tP/t, where tP is one Planck time, then we have an energy unit expressed at the Planck scale. Now we can consider the rate of time as constant and the Planck value as variable. What does this tell us?

[jeffreyH (OP)]

In considering the thimble full of neutronium I had a thought. What if action is dilated rather than just time. Then E = h/t can be restated as u = E₀*t. Where E₀ is emission energy. Then we can define u = E₀*t + (1/2)(E₀/c²)g*r*t. Action dilation is then in joule seconds. This excludes length contraction altogether.