November Demo predictions

It's time to make some predictions about the upcoming November presentation that Rossi will make to highlight the start of production of his LENR reactor product line.

From his blog as follows:

"Tom Conover September 29, 2017 at 2:09 PM ...

Q1: Will the improvements be completed before the presentation?

Q2: Are the improvements for 1) Manufacturing; 2) Functionality; 3) Sigma 5; 4) All of the above.

Q3: Your partner expresses interest in making electricity. Will this

be directly from the 1) QuarkX or using the 2) Carnot cycle?

Andrea Rossi September 29, 2017 at 2:28 PM

Tom Conover:

Thank you for your insight.

Answers:

1- yes

2- 4

3- both plus something new

Warm Regards A.R."

------------------------------------------------------------------------------------------------

Something new must have something to do with the production of light. Alan Smith mentioned that he has heard first hand observation of the Quark that light can be produced in any color and the generation of that color is controllable by the operator.

Some background on the theory that underlie this speculation.

Quote

Marrying superconductors, lasers, and Bose-Einstein condensates

http://phys.org/news/2016-06-s…einstein-condensates.html

A polariton condensate releases output energy to the far field in three ways.

First, electrons are produced as a decay product of meson production. This type of energy output supports direct electric production.

Second, the Bose condensate produces heat output like a blackhole from hawking’s radiation

Three, the Bose condensate produces light as a side peak radiation of visible light output from deep red to very deep blue. The collar that is produced is determined by the density of the polaritons constrained in the condensate.

This third type of reaction output is what I predict that Rossi is referring to as "something new".

The referenced article states:

"They observed high-energy side-peak emission that cannot be explained by two mechanisms known to date: Bose-Einstein condensation of exciton-polaritons, nor conventional semiconductor lasing driven by the optical gain from unbound electron hole plasma."

For details of this mechanism see as follows:

Quote

https://www.nature.com/articles/srep25655

High-energy side-peak emission of exciton-polariton condensates in high density regime

Quote from Shane D.

Axil,

Did you read the PopSci article from Oct 2012 I posted today? If not, do so, and there you will find your answer.

For the convenience of the reader when you reference something in another thread, you should post a link to it so that one does not need to do any seeking, THis link is valuable as time rolls on and the posts get discombobulated over time,

Reference:

https://www.nature.com/articles/srep25655

High-energy side-peak emission of exciton-polariton condensates in high density regime

In the same way as the standard Mollow triplet with a single atom, the energy gap will show the Mollow-type triplet, which becomes a signature of coherence of the photons with the e-h system and direct evidence of strong coupling.

Energy diagrams of the dressed states in the two level emitter (A) and the e–h–p dispersion (B). In the left panel of (B), the dipole coupling to the cavity photons and the e–h attractive Coulomb interactions are neglected, while it is include in the right panel. In this case, the electron band (the solid blue curve) is mixed with the +ω0-shifted hole band (the dashed red curve). In the same manner, the hole band (the solid red curve) is mixed with the −ω0-shifted electron band (the dashed blue curve). The triplet spectrum is formed in a certain wavenumber regime, where the valence band of the n + 1 total excitation numbers and the conduction band of the n coincide.