On Tuesday Jones said[snip] The zero-point field could potentially supply 
mass-equivalence to a chemical reaction in a number of forms, including your 
favorite: spin energy[/snip]
In a Puthoff sense physical mater only persists because of Zero point spin 
energy/Aether, which is rolled into our laws of physics and explains the 
periodic table. These anomalies only occur when certain conductive materials 
have certain confined geometries when loaded with certain gases.  These 
occurrences are in conflict with the isotropy which will try to turn or close 
the breach such that isotropy is restored.

I think Axil’s post regarding grapheme is also related to this – where water 
permeates grapheme while hydrogen and oxygen can not. Water also flows more 
rapidly thru carbon nano tubes of the appropriate dimensions than can be 
explained making it of interest for desalination. The water molecule changes 
shape and IMHO becomes an engine when confined that harness HUP to drive the 
molecule thru the nano tube and similarily a single layer of water can slide 
between layers of graphene.

Fran

From: Jones Beene [mailto:[email protected]]
Sent: Tuesday, January 06, 2015 11:27 AM
To: [email protected]
Subject: EXTERNAL: RE: [Vo]:Right-on AGP

Bob,

Simply stated – we can suggest that we could be seeing a unique chemical 
reaction which gives more energy in formation than it requires to decompose 
back to the original reactants.

Standard textbooks says NO WAY. Gibbs free energy is balanced. Nevertheless, if 
there was to be found such a reaction, and Parkhomov could provide the 
evidence, then it would still require the equivalent of mass loss. The 
zero-point field could potentially supply mass-equivalence to a chemical 
reaction in a number of forms, including your favorite: spin energy. Another 
way is ground state redundancy, which is also spin – in the form of angular 
momentum.

From: Bob Cook

To show my ignorance, what's a Gibbs energy vector?  Can it point into negative 
energy?  Zero point?  I am not sure of all your inferences.

A side note which should be mentioned re: Mark’s listing of citations, given 
the extreme energetics of lithium hydride… is whether we are looking at a 
subset of violation of parity. Or maybe it is the superset.

A “near miracle” explanation for the Parkhomov anomaly can be called 
“asymmetric chemistry.” It involves a net energy deficit between thermal 
decomposition compared to the heat of formation. There could exist a small gap 
which then is cumulative via a serial process for net gain. Except for the Lamb 
shift, this kind of asymmetry is almost unknown in physics. The ultimate source 
of gain would be zero point.

The alternative “miracle explanation” for gain, of course … is nuclear fusion, 
in the guise of LENR. BUT… if we want to talk about “conservation of miracles” 
the nuclear explanation requires 3 miracles to explain the Parkhomov effect.

1)      Overcoming the coulomb barrier

2)      Complete avoidance of gamma rays or bremsstrahlung

3)      Complete avoidance of radioactive ash

While Gibbs asymmetry, as we can call it - requires something less than a 
miracle, since it is hinted at already. Until 1947, physics assumed that all 
forces of nature were completely symmetric and did not distinguish between 
right and left, image and mirror-image or between Gibbs energy vectors. The 
discovery of violation of parity in 1956 was more than a sensation, it was a 
shocker since it went beyond QM: as the Lamb shift a decade earlier was both 
minimal and quantum. Both imply that the universe displays handedness, or 
chirality, and this is fundamentally asymmetric. “Enantioselective catalysis” 
took that a step further into thermodynamics … and now hydride chemistry could 
change everything that we assume about the necessity of symmetry in nature… and 
at high probability.

From: Mark Jurich

[4] The Thermal Decomposition of Lithium Aluminum Hydride, Block & Gray (1964)

      http://pubs.acs.org/doi/pdf/10.1021/ic50025a009

      Page 1 –> 
http://pubs.acs.org/appl/literatum/publisher/achs/journals/content/inocaj/1965/inocaj.1965.4.issue-3/ic50025a009/production/ic50025a009.fp.png_v03

      Page 2 –> http://www.tempid.altervista.org/Page2.png



Here are my references, in chronological order:



[1] The thermal decomposition of lithium aluminum hydride, Garner & Haycock 
(1951)

      
http://rspa.royalsocietypublishing.org/content/royprsa/211/1106/335.full.pdf



[2] PRELIMINARY INVESTIGATION OF LITHIUM HYDRIDE AS A HIGH-TEMPERATURE INTERNAL 
COOLANT, Modisette (1957)

      http://naca.central.cranfield.ac.uk/reports/1957/naca-rm-l57f12a.pdf



[3] INVESTIGATION OF LITHIUM HYDRIDE AND MAGNESIUM AS HIGH-TEMPERATURE INTERNAL 
COOLANTS WITH SEVERAL SKIN MATERIALS, Modisette (1958)

      
http://digital.library.unt.edu/ark:/67531/metadc53069/m2/1/high_res_d/19660024045.pdf



[4] The Thermal Decomposition of Lithium Aluminum Hydride, Block & Gray (1964)

      http://pubs.acs.org/doi/pdf/10.1021/ic50025a009



[5] Desorption of LiAlH4 with Ti- and V-based additives, Blanchard, Brinks, 
Hauback & Norby (2004)

      http://www.sciencedirect.com/science/article/pii/S0921510703005415



[6] Hydrogen, lithium, and lithium hydride production, US 20130047789 A1 (2013)

      http://www.google.com/patents/US20130047789



Notes

- [1] is the classic paper (1951) everyone seems to refer to.

- [2] is prelim of [3], with slightly different content, describing the 
reversible LiH decomposition reaction

- [4] if this isn’t referenced in any paper regarding LiAlH4 Thermal 
Decomposition, the paper is suspect (1964, 2 pages, but unfortunately behind a 
pay wall, maybe if someone searches hard enough, they’ll find it; I’ll look 
after I post this. Has DSC Plots, breaking down the H2 Evolution at various 
temps, but at standard pressures)

- [5] Behind a pay wall, but what you see on the page is good enough... The do 
NOT reference [4]!

- [6] Some nice Vapor Pressure curves in here!

- I also came across this book via the Internet (as well as Axil), but I do not 
have it (looks very useful):

http://www.bookmantraa.com/thermophysical-properties-lithium-hydride-deuteride-tritide-their-solutions-with-lithium-book-72683.html




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