Regarding Axil's comment, I consider that SPP,s would be a better bet for
creation of high energy electrons and Brem
The collapse would also create energetic electrons and Brem...
The light speed at the surface of the medium supporting the SPP's would
important in the creation of Brem... The higher the refractive index the more
Brem... one should expect.
Bob Cook
PS: This is more like a traditional Vortex blog subject.
FRC
From: Jones Beene <jone...@pacbell.net>
Sent: Friday, August 12, 2016 6:39 AM
To: vortex-l@eskimo.com
Subject: [Vo]:Another slant on hole superconductivity
One of the leading experts on HTSC is the controversial hands-on theorist Joe
Eck. In his latest installment, Eck adds to his emerging theory – called the
Periodic Compression Theory…
http://www.superconductors.org/AEOHTSC.htm
Eck’s theory asserts that metals of disparate weights but identical oxidation
states will produce superconductivity when positioned on opposite sides of an
oxygen atom. Periodic compression from lattice vibrations causes the balance of
valence to shift, creating a HOLE at the oxygen site. The positively-charged
ion then facilitates the pairing of electrons in the hole, producing
superconductivity via the Cooper pair.
END
Comment: Ironically, it can be observed that heat causes the vibration which
causes the hole which causes the electron pairing – so heat actually causes the
superconductivity, in a way. The implication is that temperature control will
always be needed in HTSC. Hopefully it can be as simple as fans.
PRIOR post on HTSC: It may be worth noting that “hole superconductivity” may
end up being broader than Hirsch’s theory. For instance, Hirsch mentions “ring
current” several times in his many papers, which is somewhat of a middle ground
between electron and hole superconductivity. In fact, he tries to explain
everything under one banner, but I have yet to find a coherently worded
explanation which placates all the possibilities. [Eck’s theory could do that]
These views on room temperature superconductivity come together in LENR, at
least at the low end of the temperature scale – and when aromatic catalysts are
involved. They are probably not relevant to Parkhomov or high temperatures.
This is particularly interesting to me since phenanthrene has been mentioned by
Hirsch and others in the context of both ring current and hole
superconductivity. However, I agree with Mark that Bremsstrahlung is unlikely
from either type and would be self-quenching. Nevertheless, moderately fast
electrons are possible so long as high temperature is avoided.
Moreover, the advent and maintenance of RTSC (localized as ring current) would
serve to explain why some types of LENR are difficult to pull off at the low
end of the temperature scale (such as in Craven’s NI-Week demo). The experiment
must find the narrow region of temperature where a localized Meissner effect
can coexist with optimized proton exchange and H3+ formation. This range
probably peaks about 100° but finding it could be more meaningful than the high
temperatures of the Parkhomov experiment, since self-sustaining heat is
possible.
From: Mark Jurich
The radiation extends above 0.511 MeV in Trace #7 and this doesn't seem to fit
with Hirsch's Theory (i.e., Hole Superconductivity as described in DOI:
10.1088/0953-8984/19/12/125217 ). Perhaps if the electrons were heavy
(dressed) it could be valid. I would need to take a closer look.
Also, I don't see Hirsch justifying Brems during creation of HSC, but a peak @
0.511 MeV.
... I'm just glancing over things right now, so I may chime back.
- Mark Jurich
-- Original Message --
From: "Axil Axil"
The x-radiation seen in the MFMP experiment called the "seventh segment signal"
may have been caused by the initiation of "hole superconductivity" when the
meissner effect expels electrons from the center of the superconducting
material thereby producing x-rays through Bremsstrahlung. Also when the Hole
superconductor is quenched, the same process produces electron collapse into
the center of the dying superconductor also producing Bremsstrahlung.
