Correction

It is hard to tell what is going on if the electron is viewed realistically
rather like a pin ball.

should read

It is hard to tell what is going on if the electron is viewed realistically
like a wave rather than like a pin ball.




On Tue, Feb 4, 2014 at 6:40 PM, Axil Axil <[email protected]> wrote:

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> http://phys.org/news/2011-10-physicists-unveil-theory-kind-superconductivity.html
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> and another
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> http://phys.org/news/2014-02-result-cheaper-efficient-solar-cells.html
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> Electrons could become squeezed in that their quantum properties become
> delocalized. An electron can be spread out all over the superconductor
> because its location is pinned.
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> It is hard to tell what is going on if the electron is viewed
> realistically rather like a pin ball.
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> The electron has over 500 modes of existence based on how these particles
> move in relationship to each other,
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> I adhere to the spin net emergence of the electron in that electrons and
> light strings are the same thing with the electron being the tip of the
> light string.
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> Voltage is a description of the electron that is only applicable to a
> particular state of electron matter.
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> Voltage may not apply to all the ways that an electron can exist. It is
> not clear that voltage can be applied to electrons in a superconductor;
> especially when the type of superconductor is not defined.
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> On Tue, Feb 4, 2014 at 6:09 PM, John Berry <[email protected]> wrote:
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>> While looking at reviews for Caver A. Mead's book, I read a review that
>> said he made a mistake including voltage in a calculation for
>> superconductors.
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>> Now I think that there must be voltage of a type in superconductors,
>> there are 2 types of voltage.
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>> One is the voltage drop across a conductor. This is similar to the
>> voltage on a charged capacitor.
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>> But there are other type is kinetic voltage, this is where a charge is
>> moving at a given velocity as it used in particle accelerators.
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>> Voltage of this type can be compared to (or come from) inertia, and if
>> electrons are moving then there will be some persistence even if impedance
>> is removed since electrons still have mass.
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>> If a superconducting ring that carried a current was suddenly opened, the
>> electrons are still moving and must compress slightly as they come to a
>> stop leaving the ends momentarily charged to some degree.
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>> Additionally imagine a superconductive loop in an alternating EM field,
>> there is a voltage induced by the changing magnetic field (or
>> relativistically distorted electric field) and this does not lead to a
>> voltage drop, but there is still a voltage, if this loop was opened and a
>> normal circuit inserted you would indeed see a voltage.
>>
>> Indeed even if we use a resistive wire in such a loop, no voltage drop is
>> noted, and yet there is still a voltage present to overcome the resistance,
>> and the resistance is still impeding the flow of electrons. But would it be
>> correct to say that this is happening with no voltage, even though none can
>> be read by any instrument?
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>> John
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