In a previous note, we suggested that the change (d/dx) in the relative conditional probability at x i.e. exp(ikx) of a photon or free quantum particle (from deBroglie’s picture) may be applied to a bound state average relative conditional probability W(x) (the wavefunction) so that W(x+dx) = W(x) exp(i dx) where = -i d ln(W) / dx. We went on to argue that - d/dx d/dx W / W = which may be linked to a conservation of energy equation i.e. the Schrodinger equation. In this note, we extend these ideas to the relativistic Klein-Gordon case and also examine further statistical properties which follow, including the result that W(x+dx)= W(x) = exp(i .5dx+ i .5dx<p ave at x+dx)) to second order in dx. It seems that the variance of p is directly ...
In a previous note (1) we argued that the translational generator d/dx being associated with momentu...
In previous notes (1) we argued that the free particle action A (either nonrelativistic or relativis...
In Part I of this note, we argued that d/dX Action (where Action = Integral dt L, L being the Lagran...
In a previous note (1), we argued that W(x+dx)= W(x) exp(i dx ) where = - i d/dx lnW mimicking the b...
In a previous note, we argued that a quantum wavefunction W(x) is a relative conditional probability...
For sound and light, changes in energy due to moving frames are manifested in terms of a change in f...
Note: The equations d/dx partial [ T L] = p and d/dt partial [ TL] = -E hold for both the relativis...
In previous notes (1), we argued that for a free particle, both relativistic and nonrelativisitc Lag...
Addendum: Dec. 15, 2020. The title of the first reference is: Phase Shift of exp[i delta(x)] for Bo...
In a previous note (1), we argued that quantum bound states may follow from a postulate regarding re...
The classical Lagrangian L leads to Newton’s second law which is equivalent to an energy-momentum co...
In a number of previous notes, we suggested writing a quantum conditional probability P(p/x)=a(p)exp...
In earlier notes, it was argued the quantum mechanical wavefunction is a function which mimics exp(i...
Free quantum particles may be represented by a wavefunction of exp(ipx) where “px” suggests a resolu...
In part I we argued that classical mechanics divides a one dimensional line into equally spaced dx r...
In a previous note (1) we argued that the translational generator d/dx being associated with momentu...
In previous notes (1) we argued that the free particle action A (either nonrelativistic or relativis...
In Part I of this note, we argued that d/dX Action (where Action = Integral dt L, L being the Lagran...
In a previous note (1), we argued that W(x+dx)= W(x) exp(i dx ) where = - i d/dx lnW mimicking the b...
In a previous note, we argued that a quantum wavefunction W(x) is a relative conditional probability...
For sound and light, changes in energy due to moving frames are manifested in terms of a change in f...
Note: The equations d/dx partial [ T L] = p and d/dt partial [ TL] = -E hold for both the relativis...
In previous notes (1), we argued that for a free particle, both relativistic and nonrelativisitc Lag...
Addendum: Dec. 15, 2020. The title of the first reference is: Phase Shift of exp[i delta(x)] for Bo...
In a previous note (1), we argued that quantum bound states may follow from a postulate regarding re...
The classical Lagrangian L leads to Newton’s second law which is equivalent to an energy-momentum co...
In a number of previous notes, we suggested writing a quantum conditional probability P(p/x)=a(p)exp...
In earlier notes, it was argued the quantum mechanical wavefunction is a function which mimics exp(i...
Free quantum particles may be represented by a wavefunction of exp(ipx) where “px” suggests a resolu...
In part I we argued that classical mechanics divides a one dimensional line into equally spaced dx r...
In a previous note (1) we argued that the translational generator d/dx being associated with momentu...
In previous notes (1) we argued that the free particle action A (either nonrelativistic or relativis...
In Part I of this note, we argued that d/dX Action (where Action = Integral dt L, L being the Lagran...