Kevin - I could not open that document, but it sounds similar to the
Letts/Cravens effect. Can you post the abstract?

The Letts/Cravens effect could end up being more important than anyone
realizes if the polariton is involved. Here is a Krivit interview with D.C.
on the general subject.

http://newenergytimes.com/v2/views/Group1/Cravens.shtml

The more important new point in this regard - which I would like to bring up
now due to the circumstances relates to the several new papers on
room-temperature BEC polaritons... (of a few days ago, here is one of at
least 3 similar papers):

http://physicsworld.com/cws/article/news/2007/mar/27/polariton-laser-reaches
-room-temperature

The point is this: how could the Letts/Cravens effect NOT relate to the
room-temperature BEC quasiparticle in some important way?

It would be most interesting to hear from Dennis Cravens on this.

BTW - it turns out that 5 years ago - another important detail in this
broader niche emerged - which is the magnetic susceptibility of the host.
Turns out that palladium is actually ferromagnetic when loaded with hydrogen
- similar to nickel in fact.

Here was my take on it back then in 2008 but this was before the polariton
angle was found. 

http://www.mail-archive.com/[email protected]/msg24020.html

In reconsideration of all that we know - with an eye on the future -
probably the most robust (but also the most toxic) way to move forward with
this combination of Letts/Cravens laser effect in the context of the
BEC-polariton - would be with a hybrid LENR/fission device. Yikes.

Don't wince just yet, as this could be the lesser of two evils. Fission -
despite all its baggage is far preferable to burning coal, and it produces
no greenhouse gases, so if fission can be made more desirable then surely
the Chinese will substitute it for coal, even if the USA is "too advanced"
for a new and better kind of Uranium fission. 

This hybrid of LENR and U fission would be a concept which is massively
subcritical, uses natural un-enriched metal and in small reactors which
could be mass produced - but still needs plenty of shielding. LENR becomes
the driving force for Uranium fission, and hydrogen in the matrix replaces
of most of the neutron flux which would normally be required. The reactor
could be small, but too "dirty" for use in an automobile; but could be
shielded adequately with concrete for use as a "local" reactor in a factory
or office building- in which hot water is free and electricity is cheap with
no emissions. 

This concept would be far more acceptable as a replacement for normal
fission or for coal, as it would be subcritical, safe and far cleaner than
so-called "clean coal". Of course, it comes with the assumption that normal
LENR does not permit a high enough COP when scaled-up to megawatts - to ever
become commercially viable. 
 
Jones
                From: Kevin O'Malley 

                Yes, but all of these processes you describe are done near
absolute zero while using complex apparatus. This has no relationship to
cold fusion. 
                 
                ***What about KP Sinha's Laser experiment in LENR ?
                Laser stimulation of low-energy nuclear
                reactions in deuterated palladium
                http://www.ias.ac.in/currsci/oct102006/907.pdf
                

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