Invitation to discussion
Mach principle in multidimensional
dynamics
U.N.Zakirov
2/31, Lobachevsky str.,
In
five-dimensional standard cosmological solution of Ross on the basis of
standard cosmological closed model and the induced energy-momentum tensor, the
function influencing the inertial properties of a trial particle and permitting
to point to the connection with mass distribution including dark matter in the
Universe and in its nearest environment is postulated. This can be an argument to
prove Mach principle.
Ernst Mach realized the historical
and critical analysis of mechanics and paid attention to its feeble aspects; in particular, to Newtonian concept of absolute
Space and absolute Motion. In 1921 at the Royal
1.
The inertia of a body
should increase in accordance with aggregation of ponderable
masses in its vicinity.
2.
The body should undergo
accelerating force, when the neighboring masses accelerate; directions of this
force and acceleration should coincide.
3.
Rotating hollow body
should initialize "Coriolis field of forces" inside
itself which seeks to diverge moving bodies in moving direction, and also
radial centrifugal field of forces.
A.Pais wrote that he tried to
follow this principle in his theory:
as gμν
quantities (gravitational and metric potentials) cause inertia activity, they
must be, in turn, completely determined by mass distribution in the Universe.
A. Einstein assumed Space to be closed three-dimensional spherical Universe
without Newtonian infinity; further, for stationary solution he introduced the
term Λ, but with appearing of Friedmann's theory
of nonstationary Universe he abandoned it;
realization of Mach principle still remained a problem. As A.Pais wrote: "In my opinion, the problem of inertia origin
was and remains the most obscure problem in theory of particles and fields".
R.Tolman in his book wrote: "In addition to
principles of covariance and equivalence we should, apparently, enter some
complementary element into gravitation theory": and further "now we should
enter the third principle of relativistic gravitation theory, namely: the
precise formulation of law, reflecting dependence of metric and gravitational
fields on space-time state, the knowledge of which will allow one to compute
the gravitational effects at given substance and energy distributions": J.A.Smorodinsky, Editor of translation of R.Tolman's work, noted: "At present time (the seventies) : there
is no evidence for any connection between mass distribution in the Universe and
mass of any body or particle". Authors of workbook on relativity and
gravitation theory wrote that nobody till that time had managed to achieve more
or less noticeable success in derivation of Mach principle from equation of halfgeneral relativity theory.
J.Weber studying this problem wrote: "Einstein and
Wheeler studied a problem of opportunity to explain Mach principle not as a
consequence of field equation, but as a requirement imposed on boundary
conditions. If a system is "isolated", then it is necessary to introduce the
requirement, that over large distances the metrics should properly turn into
the metrics of remaining Universe. It would mean the interaction of a substance
of remaining part of the Universe with a mass of "isolated" system. The
realization of such a program could give a relation linking the inert
properties with substance configuration in remote areas of the Universe. At
last, it is necessary to note F.Hoyle's work (middle seventies),
where he suggested the modification, based on Mach principle (partitioning the
Universe into "compartments": the deeper one looks the Universe, the less mass
he can observe; in this case the size of particles also decreases, resulting in
"compartment" extremity.
The present work deals with attempt
of partial solution of this problem on the basis of five- dimensional theory of
Kaluza-Klein, as the parameters and functional
capability of constructing the induced energy-momentum tensor using these
parameters are built in it. Such parameters are metric tensor component at the
fifth coordinate γ55 and coupling coefficient of five-dimensional
and four-dimensional metric σ.
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