*Of course, that same lack of QM expertise could be said about most of the
regular posters on this forum (myself for sure – but there could be a
lurker or two who is highly qualified, perhaps yourself) but the difference
is that we did not take in $120 million over the years, based on a series
of failed promises for a working device – which device was firmly based on
a theory which essentially wants to reject QM, but ends up looking  like a
poor imitation.*


Richard Feynman said, "I think I can safely say that nobody understands
quantum mechanics."


On Wed, Aug 13, 2014 at 10:11 AM, Jones Beene <jone...@pacbell.net> wrote:

> Should have added this.
>
> In the Naudts paper often quoted by Fran Roarty, the author shows that one
> can make a good argument in favor of a deep fractional ground state: which
> we can call f/H (the hydrino-state is trademarked) using only the standard
> theory of relativistic quantum mechanics. Mills actual theory can be seen
> as
> superfluous, in that regard - at least as far as the deep state of f/H is
> concerned - as is his rejection of QM.
>
> IOW - the Klein-Gordon equation has a low-lying eigenstate with square
> integrable wavefunction. The corresponding spinor solution of Dirac’s
> equation is apparently not square integrable. For this reason the deep
> hydrino state was rejected in the early days of quantum mechanics... “Maybe
> it is time to change opinion” on that rejection - is Naudt’s conclusion.
>
> BTW – it has been mentioned here before, that one way to overcome some of
> the objections to f/H is to view the reduced ground state as transitory,
> with a short but nontrivial lifetime, and with inherent asymmetry between
> the “shrinkage” and the “reexpansion”.
>
> The inherent asymmetry will provide the energy gain in the form of UV
> photons. Perhaps that is the explanation for why the spinor solution of
> Dirac’s equation is not square integrable, and what we are missing in prior
> understanding is the metastate permitting both.
>
>                                 From: Stefan Israelsson Tampe
>                                 entangelment ...
>
>                                 Just to note, I have a few issues with
> Mills
> CQM.
>                                 1. Transients seam to not be covered by the
> theory, only the eigen states
>                                 2. I don't know how you do combinations of
> eigenstates, QM is a linear L^2 theory, I can't find any references if
> Mills
> can combine solutions as in QM and how he then does it. Anyway  I suspect
> that you need at least 2 and proabably 1 as well in order to say something
> about entanglement. No? what do you think?
>
>
> ----------------------------------------------------------------------------
> -----
>
>                 The details are made intentionally vague. I think that the
> ironic thing about Mills rejection of QM, in place of what he wants us to
> believe is “classical” – but looks a lot like paraphrasing, is that
> eigenstates and eigenvectors and eigenvalues and QM matrix math seem to be
> capable of explaining the hydrino state and orbitsphere as well as what he
> proposes. As a non-expert but curious observer, I can see how something
> like
> shear mapping of a 2D OS is at least as intuitive as the Mills version. My
> impression is that RM picked up a little QM in the nineties, and was
> possibly competent in the field 20 years ago - but thereafter became too
> busy to keep up with progress, as he was chasing investment dollars. This
> emphasis on Aspect is the perfect example of this lack of competence. QED.
>
>                 Of course, that same lack of QM expertise could be said
> about most of the regular posters on this forum (myself for sure – but
> there
> could be a lurker or two who is highly qualified, perhaps yourself) but the
> difference is that we did not take in $120 million over the years, based on
> a series of failed promises for a working device – which device was firmly
> based on a theory which essentially wants to reject QM, but ends up looking
> like a poor imitation.
>
>
>

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