Stefan,
                I have been citing that paper in blogs since 2009.. and 
intriguing is an understatement.. the idea that the hydrogen loaded into a 
lattice of bulk powder can be relativistic while sitting still on a lab bench 
surly must be unphysical??  There is no gravity well or spatial displacement 
approaching C BUT there is now suppression of vacuum density brought about by 
the Ni geometry and it grows by the inverse cube of spacing between plate like 
geometries in parallel which the gas atoms pass between. This means the atoms 
are shifting between different gravity hills without respect for isotopy - 
which is broken and segregated  by Casimir geometry. Naudts has identified the 
hydrino as relativistic hydrogen, the lower ground state is a matter of 
relative measure or  Lorentzian contraction without increasing the vacuum 
density in a well or by near C velocity.  In this case the isotropy in the lab 
becomes the bottom of the well when compared to the suppressed density inside 
the Casimir geometry.. makes me suspect we are going to find more and more 
anomalous half lives of radioactive gas occurring when loaded into skeletal 
cats and/or  nano powders.
Fran

From: Stefan Israelsson Tampe [mailto:[email protected]]
Sent: Thursday, January 16, 2014 11:01 AM
To: [email protected]
Subject: EXTERNAL: Re: [Vo]:Observation on a BLP (patent?) document

BLP being real or not, here is something that I find intriguing,

http://arxiv.org/abs/physics/0507193
QUOTE
The Klein-Gordon equation of the hydrogen atom has a low-lying eigenstate, 
called hydrino state, with square integrable wavefunction. The corresponding 
spinor solution of Dirac's equation is not square integrable. For this reason 
the hydrino state has been rejected in the early days of quantum mechanics as 
being unphysical. Maybe it is time to change opinion.
UNQUOTE

Can we spin on this? Note
1.  Not being square integrable means probably that the wave function has 
"thick tails" and that it basically describes a non-localized electron that 
happens to get close very very seldom. E.g. quite an unlikely state.

2. Solutions to Klein Gordon equations is most probably a combination of spinor 
states for which the thick tails cancels. This may mean that you can have a 
hydrino state, but it's basically impossible to reach it because it depends on 
a delicate balance.

But what if we combine a cluster of N hydrogen atoms, what happens then?, well 
we could view this as a possibility to bend the space into a compact manifolds 
of various forms and for applying these states on that system, one could 
perhaps trigger the formation of these hydrino states, for that case one would 
expect the electron will be partly bound closely, more closely than ordinary 
hydrogen but also have a component of delocalisation e.g. an affinity for the 
system to behave as a strongly coupled system just as with a BEQ state.

So assuming the active sites have an ability to catalyze clusters of hydrino 
clusters, the next step to take is to note that for these hydrino clusters that 
could very well be close in nature to BEQ clusters, but more combact due to the 
close proximity of the electrons to the nucleus, the mechanism Kim describes 
could very well trigger nuclear reactions.

At least that's my 2c of what's happens.

Have fun!






On Thu, Jan 16, 2014 at 4:20 PM, Jones Beene 
<[email protected]<mailto:[email protected]>> wrote:
In earlier BLP filings - on what constitutes a hydrino catalyst, it turned out 
to be possible to fit two thirds of the periodic table into their expansive 
definition. Talk about "over-reaching" ...

USPTO examiners detest these painfully long and over-reaching applications. 
Many observers have commented on how poorly worded BLP's efforts turn out - and 
how little value they actually have in defensible IP, having paid top dollar 
for poor work. BLP will probably not fare well if it ever comes to litigation.

A few years ago it was noted here that the company had overlooked "gas phase" 
in all of their voluminous filings - that is, up until Rossi's patent 
application showed up in which his claim was for only gas phase... at which 
time BLP altered a previous filing, once which had only claimed liquid and 
plasma phase, to include gas phase. It was obvious that they were trying to 
cover up a glaring mistake in coverage.

I suppose that they were hoping no one would take notice, but instead the 
effect was to announce to the world how badly they had screwed up.

From: David Roberson

It appears to me that they have most of the possible current levels covered.  
Why list ranges that include each other?

Magnetic fields that are changing in magnitude or direction generate electric 
fields that can impart energy upon charged particles.  A steady magnetic field 
is not able to supply energy to these charged objects, but can change their 
direction of motion.

Dave



-----Original Message-----
The BLP website is down as I write this, but yesterday the

"What's New" tab on their homepage led to this entry dated 1/14/14 -



Patent Application - Power Generation Systems and Methods Regarding Same.

http://www.blacklightpower.com/wp-content/uploads/presentations/Power%20Generation%20Systems%20and%20Methods%20Patent%20Application.pdf



I am unsure whether this untitled 324 page document is an existing

patent application, one just submitted, or is pending submission.



What I found especially interesting is that it credits the anomalous

energy generation, and hydrino formation to an extremely wide range of

plasma currents, and current pulse widths.  For example, on p.107,

the following excerpt appears -





  "The current density may be in the range of at least one of

  100A/cm^2 to 1,000,000 A/cm^2, 1000 A/cm^2 to 100,000 A/cm^2,

  [...]

  The pulse time may be in at least one range chosen from about

  10^-6 s to 10s, 10^-5s to 1s, 10^-4s to 0.1s, and 10^-3s to 0.01s.

  [...]

  The magnetic flux may be in the range of about 10 G to 10 T,

  100 G to 5 T, or 1 kG to 1 T."





The huge current densities and sharp rise/fall times should create

very large magnetic forces that, if focused, impart huge momenta

and energies to charged particles that are in, or impacted, by the

plasma current filaments.





Possibly, BLP's upcoming demo will be a more systemic version of

the 1922 Wendt-Irion experiment that vindicates W-I's conclusions?



-- Lou Pagnucco







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