Alexandr A.Shpilman ( alexandrshpilman78@gmail.com )
Coherent
an Electrical Current
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At a motion of the
electrons e (see Fig.1) in a conductor along the coordinate x, the electrons move in
a field of varied electrical potential U of the atoms’ lattice of the
metal P.
Thus the impulse of the electron e
is equal:
P(x)=P0-SQRT(q*U(x)*m)
where |
P0 – is an initial impulse of an
electron; |
Changing of a
relative phase of a wave function:
df~P(x)*dx= (P0-SQRT(q*U(x)*m))*dx
I.e. the electrons will have
different increase of a wave function’s phase at a motion on different
trajectories in a crystalline lattice of metal. If we shall reduce an
oscillations’ amplitude of an impulse of an electron P(x), we can reduce
the straggling change a phase of a wave function of electrons and thus,
probably, the achievement of a coherence of electrons’ motion is possible.
It is possible to manipulate by an effective impulse of an electron P(x)
changing the vector potential A(x). Thus:
P(x)=P0-SQRT(q*U(x)*m)–
q *A(x)/c
where |
c – is a velocity of light. |
The change of a
relative phase of a wave function will be:
df~P(x)*dx= (P0-SQRT(q*U(x)*m)–
q*A(x)/c)*dx
If we dispose ferromagnetic atoms between the atoms of an electrical conductor,
these ferromagnetic atoms can strengthen the ring of magnetic field H1
of a moving electron. Vector potential A(x) of this ring of magnetic
field will reduce the change of an effective impulse of an electron as it is
shown in Fig.2.
If we dispose diamagnetic atoms
around the atoms of an electrical conductor, these diamagnetic atoms can
attenuate a ring magnetic field of a moving electron. It is equivalent to
occurrence of a magnetic field H2 directional opposite to the magnetic
field H1. Vector potential A(x) of this ring of magnetic field
will reduce the change of an effective impulse of an electron as it is shown in
Fig.3.
In the result, the change of a
relative phase of a wave function of electrons will be possible so small that
the occurrence of a coherent current of electrons will be possible at high
temperatures.
Probably, it is
a model of a high-temperature superconductor, in which, for example, it is
possible to use ferromagnetic atoms Fe, Co, Ni and diamagnetic atoms O, C, Bi.