FunkyDwarf
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Hi All,
As shown here
http://en.wikipedia.org/wiki/Klein–Gordon_equation#Gravitational_interaction
one can modify the derivative operator in the Minkowski Klein-Gordon equation to generate the GR case for an arbitrary metric.
My question is, what would the quantum current density j be in this case? Given here
http://en.wikipedia.org/wiki/Four-current
is the classical current density in the EM case but that's not really what I'm after.
Furthermore, if i generate a radial wave equation from the GR KG equation in some metric and transform it in a Schrodinger like form, can I just use the standard tools of non-rel QM and use \psi^* \frac{d}{dx} \psi for j?
Cheers!
As shown here
http://en.wikipedia.org/wiki/Klein–Gordon_equation#Gravitational_interaction
one can modify the derivative operator in the Minkowski Klein-Gordon equation to generate the GR case for an arbitrary metric.
My question is, what would the quantum current density j be in this case? Given here
http://en.wikipedia.org/wiki/Four-current
is the classical current density in the EM case but that's not really what I'm after.
Furthermore, if i generate a radial wave equation from the GR KG equation in some metric and transform it in a Schrodinger like form, can I just use the standard tools of non-rel QM and use \psi^* \frac{d}{dx} \psi for j?
Cheers!