Lot's of energy in that vacuum.  Nature bottled it up for good reason.

On Tuesday, March 5, 2013, Axil Axil wrote:

>
> To understand why polaritons cause LENR when they are confined within a
> nano-cavity, a look at some newly developed quantum mechanical models of
> dipole-photon interactions is helpful.
>
> Basically, when a photon and the electron part of a dipole are confined in
> a small cavity, they couple strongly together and affect each other as
> waves when they resonate and overlap.
>
> In a nutshell, the nano-cavity keeps these photon/dipole pairs confined in
> a small space for a long enough timeframe for these two types of waves to
> reach a resonate condition. That is, these two types of waves rattle around
> inside the cavity until they eventually overlap into a resonance condition.
>
> The smaller the cavity may be, the faster and more powerfully they
> resonate.
>
> The result of this resonance is a new wave call a Polarition.
>
> The Rabi model (RM) describes the simplest interaction between quantum
> light and matter. The model considers a two-level atom coupled to a
> quantized, single-mode harmonic oscillator (in the case of light, this
> could be a photon in a cavity). The model applies to a variety of physical
> systems, including cavity quantum electrodynamics, the interaction between
> heat and dipoles. RM describes the simplest interaction between light and
> matter. In its semiclassical form, this model describes the coupling of a
> two-level system and a classical monochromatic field. The fully quantum
> model considers the same situation, with the light field quantized.
> Although this model has had an impressive impact on many fields of physics
> —in its semiclassical form, it is the basis for understanding nuclear
> magnetic resonance—many physicists may be surprised to know that the
> quantum Rabi model has never been solved exactly.
>
>
> I have to mention something I though was really neat in the Nanoplasmonics
> experimental results.
>
>
> Not only do the photons and dipoles couple very strongly in the lattice,
> they also couple to the quantum vacuum as evidenced by the appearance of
> vacuum Rabi splitting in the spectroscopic analysis of the associated EMF
> photon radiation.
>
>
> Cheers:  Axil
> On Tue, Mar 5, 2013 at 2:24 PM, Roarty, Francis X <
> [email protected]> wrote:
>
>  YES! YES! YES! A rose by any other name regardless if you get there via
> Casimir geometry or plasmonics but enough energy to disassociate H2 at a
> discount less than you reap when it immediately reassociates. That is the
> common thread for MAHG, Mills , Rossi and many of the others all the way
> back to Langmuir.. I still think the plasmonics are feeding off the
> geometry but no matter we are definetly on the same page! I think the
> reproduction issue with these anomalies is only because they are self
> destructive and have to be throttled way back AND sink the energy away
> because even a little runaway will burn up in hotspots if not sunk from the
> moment of activation. ****
>
> [snip] These researchers found, as the main result of their study, that
> some of the hot electrons could transfer into the closed shells of the H2
> molecules and cause the two hydrogen atoms to separate, or dissociate. This
> process, called "plasmon-induced dissociation of H2 on Au," [/snip]****
>
> Fran****
>
> ** **
>
> *From:* Teslaalset [mailto:[email protected]]
> *Sent:* Saturday, March 02, 2013 3:27 PM
> *To:* [email protected]
> *Subject:* EXTERNAL: Re: [Vo]:****
>
> ** **
>
> Axil, ****
>
> ** **
>
> Interesting finding.****
>
> Can youreward the associated  source Nano letter, please?****
>
> ** **
>
> Thanks!****
>
> Rob Woudenberg****
>
>
>
> Op donderdag 28 februari 2013 schreef Axil Axil ([email protected]) het
> volgende:****
>
> Hydrogen(H2) molecule dissociation to atomic hydrogen(H1)****
>
>
> http://phys.org/news/2012-12-hot-electrons-impossible-catalytic-chemistry.html
> ****
>
> Hot electrons do the impossible in catalytic chemistry****
>
> Professors Peter Nordlander and Naomi J. Halas of Rice University in
> Houston, Texas are at the cutting edge of the nanoplasmonic revolution.
> This field of study is where LENR properly belongs.****
>
> These researchers found, as the main result of their study, that some of
> the hot electrons could transfer into the closed shells of the H2 molecules
> and cause the two hydrogen atoms to separate, or dissociate. This process,
> called "plasmon-induced dissociation of H2 on Au," ****
>
>  ****
>
>
> The researchers found that, as soon as they turned the laser on, the rate
> of HD formation on the nanoparticle surface increased by a factor of 6.
> They also measured that the rate was strongly dependent on the
> concentration and size of the gold nanoparticles. The researchers explained
> that, in a sense, the electrons "do the impossible" because there would be
> no dissociation without them.****
>
>
> Nordlander said. "It is an impossible chemical reaction. The energy for
> dissociation is simply too large.****
>
>
> On other metals, like transition metals, a hydrogen molecule can
> dissociate spontaneously, in particular near defects and at elevated
> temperatures.****
>
> The primary reason why these energetic electrons can dissociate the hydrog
>
>

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