Agreed, although I still suspected the covalent bond is making and breaking to
initiate the photons your point seem well taken, that just stretching or
contracting the orbital would also emit a photon. Maybe Inverse Rydberg steps
are equivalent to discrete orbitals and photons emit upon falling.. Does the
covalent orbital tether individual atoms between different IRH steps - a
tapestry of various tiny Casimir regions so small that atoms of the same
molecule are exposed to different values of vacuum pressure to the point
where the covalent bond is stretched or contracted with motion through this
tapestry. My ZPE perspective I derived because without random motion/HUP gas
would not exist much less have energy to traverse through different values of
Casimir force. I am convinced that this excursion of H2 orbitals is not upon a
spatial axis and is responsible for the claimed contraction of fractional
hydrogen to the point where these orbitals can exceed the spatial limitations
for boundary wall to focus {Lipschitz} accessing progressively higher levels
of Casimir containment right up to the point of contact when the force is
negated .. My point being that the fractional orbital has undergone Lorentzian
contraction and the lower population of virtual particles is equivalent to
distance in the same manner as a spacecraft approaching C. When Casimir plates
close below this quantum focus threshold there is, IMHO, still a very real
spatial displacement between fractional hydrogen and these plates, The
hypotenuse can continue to exceed the focal distance and further impede the
virtual particles even when the plates are less than the width of individual
atoms from our perspective because we are in different inertial planes.
Fran
_____________________________________________
From: Jones Beene [mailto:[email protected]]
Sent: Wednesday, September 10, 2014 10:04 AM
To: [email protected]
Subject: EXTERNAL: [Vo]:One more piece of the A.I. puzzle
There is a jigsaw puzzle, which includes words, acronyms, papers and
experiments from broad patch of the High Technology world - which promises to
combine the microlithography techniques of the semiconductor industry (now
approaching the few nanometer geometry of the Casimir force) with DCE, DDL,
LENR, RTSC, and CNT to from a complete picture.
The picture is one of self-charging battery, for want of a better term, which
is a chip-sized device in the one cm^2 geometry, which is a direct converter
into electricity of the energy gain of the Deep Dirac Level of hydrogen. This
excursion of H2 orbitals releases photons in the soft x-ray spectrum, and using
room temperature superconductors and molecular diodes this energy can be made
useful. Imagine a mobile smart phone which never needs charging.
The inspiration for this was a recent article on molecular diodes - which
should work with CNT as well as other forms of carbon. The article did not
mention ring current, but it should have.
http://www.nature.com/ncomms/2014/140909/ncomms5877/full/ncomms5877.html
The DCE or dynamical Casimir effect was first seen in 2011 (Wilson) and has
been discussed here before. The DCE is suspected to be the driving force for
converting hydrogen to the DDL.
http://www.technologyreview.com/view/424111/first-observation-of-the-dynamical-casimir-effect/
http://arxiv.org/abs/1105.4714
This DCE was seen at cryogenic temperatures using a traditional superconductor
SQUID circuit. At room temperature, it has been shown theoretically that the
photon gain will be 3 orders of magnitude larger if such a circuit is also
superconductive. This is due to thermal rectification in the same vector as
electric.
http://arxiv.org/pdf/quant-ph/0106045.pdf
There have several technologies over the years for room temperature
superconductors (RTSC), but none have gotten out of the lab and into
production. In addition there is some evidence of carbon nanotubes being
amenable to RTSC effects either alone, or together with a conductive polymer. A
basic disclosure in the RTSC area is Grigorov et al. "Highly conductive
macromolecular materials" US 20040246650 which is polymer based. Another is
Maxwell, "Ultraconducting articles" US 20120031644. Another is Aldissi
"Polymers having an ordered structural state" US 7,097,757 describing a class
of polymers with superconducting properties fabricated by forming nanoscale
waveguides. Another is Schroder, "Superconducting device including a thin
chromium film" US 4905319. Another is Taft "Composite superconductor" US
8,470,743 for a superconductor powder dispersed within a conductive polymer
matrix.
Next - in fitting together the pieces of the puzzle, there is the "molecular
diode", which can arguably take the place of mirrors in the circuit as
mentioned above. Combine all of these features on a chip and the picture is
complete. The final image looks like this: A thin layer of waveguides, circuit
lines and SQUIDS is etched onto a chip-sized piece of RTSC material which
contains CNT and nickel in appropriate areas of the chip. When exposed to
hydrogen under pressure in a magnetic field, electrical current will flow based
on rectification of x-ray energy from DDL excursions by hydrogen. Casimir
cavities (tunnels) have been etched along the waveguides for this purpose. The
entire circuit is polarized by a strong permanent magnet.
This is essentially a self-powered computer chip which can take the place of
batteries in Android Smart-Phones... or even in androids of another kind :)
Jones
