Also see

http://en.wikipedia.org/wiki/Laughlin_wavefunction

the *Laughlin 
wavefunction*<http://en.wikipedia.org/wiki/Laughlin_wavefunction#cite_note-1>


On Mon, Sep 16, 2013 at 11:51 PM, Axil Axil <[email protected]> wrote:

> Fractional charge carriers discovered
>
> Oct 24, 1997
>
> Last month, two groups of physicists revealed the first direct evidence
> that an electric current can be carried by quasiparticles with fractional
> charge.
>
> Electric charge normally comes in an indivisible unit: the charge of an
> electron. Indeed, quarks were thought to be the only particles with
> fractional charge - and today they only exist in particles that have a
> integer charge. But last month, two groups of physicists revealed the first
> direct evidence that an electric current can be carried by quasiparticles
> with fractional charge."All the interacting electrons are there but they
> behave as if they are non-interacting quasiparticles with charges of
> one-third, " says Moty Heiblum of the Weizmann Institute of 
> Science<http://www.weizmann.ac.il/~physics/cndnsd.html>in Rehovot, Israel, 
> who heads one of the groups.
>
> The Israeli group, published its results in Nature<http://www.nature.com/>,
> while a French group based at the 
> CEA<http://paprika.saclay.cea.fr/uk/index.html>laboratory near Paris, 
> published its results in Physical
> Review Letters <http://ojps.aip.org/journals/doc/PRLTAO-home/index.html>.
>
> Both groups measured a small electrical current in a two-dimensional
> electron gas sandwiched between two semiconductor layers. Fluctuations in
> the current - shot noise - were used to measure the electrical charge of
> the carrier particles. The sample was chilled to less than 1 K and a strong
> magnetic field applied at right angles to the layers. By analysing the shot
> noise in this regime, both groups reported evidence that the electric
> current is carried by quanta with charge one-third that of the electron.
> "Up until now, there was no evidence that current could be carried by a
> fractionally charged quasiparticle, " says Christian Glattli, who heads the
> French group.
>
> The results agree with a theory which was formulated by Robert Laughlin in
> 1982 to explain the fractional quantum Hall effect. According to Laughlin,
> electrons in strong magnetic fields form an exotic new collective state,
> similar to the way in which collective states form in superfluid helium. A
> quantum of magnetic flux and an electron exist as a quasiparticle that
> carries the electric current.
>
> So why did the researchers observe quasiparticles with charges of a third,
> rather than any other fraction? In Laughlin's theory, the denominator is
> always odd, so *quasiparticles can carry one-third, one-fifth,
> one-seventh - or indeed, two-thirds, two-fifths or three-fifths - of the
> charge on an electron. *"It is very difficult to explain intuitively - it
> is just how nature works, " says Heiblum.
>
> "It is a beautiful result, " says Mark Fromhold of Nottingham University.
> "It is remarkable that electrical signals from individual quasi-particles
> can be detected and used directly to measure their fractional charge."
>
>
>
>
>
> As has been produced in the DGT reactor, intense anapole magnetic fields
> produced by nanoplasmonic solitons  can effect electron charge in the
> vicinity of the soliton as these electrons follow a spiral orbit away
> from the soliton constrained on the surface of a Poincaré cone whose origin
> is the soliton.
>
>
>
>
>
>
>
> see
>
> http://en.wikipedia.org/wiki/Fractional_quantum_Hall_effect
>
> The *fractional quantum Hall effect* (FQHE)
>
> The* *fractional quantum Hall effect (FQHE) is a physical phenomenon in
> which the Hall conductance of 2D electrons shows precisely quantized
> plateaus at fractional values of [image: e^2/h]. It is a property of a
> collective state in which electrons bind magnetic flux lines to make new
> quasiparticles, and excitations have a 
> fractional<http://en.wikipedia.org/wiki/Fractionalization> elementary
> charge <http://en.wikipedia.org/wiki/Elementary_charge> and possibly also
> fractional statistics
>
> Note that a strong magnetic field must be present to form the *
> quasiparticles.*
>
> **
>
>
> On Mon, Sep 16, 2013 at 11:02 PM, <[email protected]> wrote:
>
>> In reply to  Axil Axil's message of Mon, 16 Sep 2013 18:47:22 -0400:
>> Hi Axil,
>> >*Hydrinos result from an experimental misinterpretation of the
>> >Nanoplasmonic conversion of infrared radiation converted into the blue
>> >light frequency range released to the far field by the whispering gallery
>> >wave effect ater that infrared EMF is transformed by Fano resonance.*
>> >
>> >* *
>> >
>> >*If you think this is “word salid” I will be happy to explain the concept
>> >in simple details at your convenience.*
>> [snip]
>> I don't think it's word salad, but I am also not convinced that it
>> explains away
>> Hydrinos.
>> The evidence for Hydrinos is much stronger than just the result of a
>> single
>> experiment, and takes multiple forms, i.e. is not susceptible to being
>> explained
>> by a single misinterpretation.
>> (See Mills' web site for the many different experiments performed.)
>>
>> Besides, I only mentioned Hydrinos, because they were the obvious
>> exception to
>> your statement. However Horace's theory is also an exception, as in fact
>> is also
>> the explanation involving Rydberg Hydrogen preferred by Defkalion.
>> (Although in the latter case one may argue that some energy is required
>> to boost
>> the Hydrogen atom into the Rydberg state, this is trivial in comparison
>> to the
>> amount of energy normally required to initiate fusion reactions - of the
>> hot
>> variety).
>>
>> Regards,
>>
>> Robin van Spaandonk
>>
>> http://rvanspaa.freehostia.com/project.html
>>
>>
>

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