Re: 'charge-density-wave instability'


What does this mean, in simple speaking?



Electrons pair up into cooper pairs because these electrons have lost their
charge; these free electrons don’t have charge repulsion around anymore to
gum up their party.



Their charge is masked out of existence on the surface of the
superconductor by the crystals structure deep within the bulk of the
material of the superconductor. Positive electric fields reach out of the
bulk material to neutralize negative charge. This is the way that the
surface electrons feel charge. These surface electrons lose their charge at
certain locations, strips, or channels on the surface of the
superconductor. This is how the electrons become attractive to each other
because theirs spins are still there and the electrons are now without
charge. They will now attract magnetically another electron that is also
without charge of the opposite magnetic polarity (opposite spin).



When heat is added to the superconductor, the charge distribution imposed
on the free electrons by the crystal structure inside the bulk of the
material is disrupted. The electronic structure of the crystals is not
strong enough to counteract the disruptive effects of atomic vibrations in
the bulk of the material. A 'charge-density-wave instability’ develops.



The once charge free surface electrons now regain their charge and break
apart and superconductivity stops.



In materials physics, it’s all about controlling from inside the bulk of
the material, the behavior of the electrons on the surface of the material.



This principle is the same for LENR.





Cheers:   Axil






On Sat, Jul 14, 2012 at 2:01 AM, Eric Walker <[email protected]> wrote:

> These two articles are suggestive when read in conjunction with one
> another:
>
> http://phys.org/news/2012-07-synchrotrons-superconductors-cold.html
> "The team found the first experimental evidence that a so-called
> 'charge-density-wave instability' competes with superconductivity."
>
> http://phys.org/news/2011-01-material-superconductor.html#nRlv
> "This must mean that they [electrons] were essentially already synched in
> the non-superconductor, but something was preventing them from sliding
> around with zero resistance. The precisely tuned laser light removes the
> frustration, unlocking the superconductivity."
>
> Eric
>
>

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