Link?
Gravity is
not a field theory, so I'm suspicious already

.
Maybe that is the problem.
Anyway,here goes. References are:
http://arxiv.org/abs/gr-qc/9912003v1
herewith some excerpts plus the authors cv. (so, perhaps the crank profile doesn't apply)
I can only comment on his spelling and grammar, but as he is a russian, I can excuse that.
2.1 Hypotheses of Poincare and Einstein
As early as 1905 Henri Poincare in his work ”On the Dynamics of the Electron” put forward an idea to build relativistic theory for all physical interactions, including gravitation, in flat four-dimensional space . He pointed out that gravitation should propagate with the velocity of light in a retarded way — analogous to electrodynamics, and there should exist interaction mediators — gravitational waves. Several years later in his lecture on ”New conceptions of matter” Poincare wrote about inclusion of
Planck’s discovery of quantum nature of electromagnetic radiation in the framework of future physics. Poincare, thus, could be rightfully regarded as the founder of that direction in theory of gravitation
which now is called the quantum theory of gravitational interaction in flat space-time. This way is analogous to that of all non-gravitational physics and it came to foundations of such basic theories
as quantum electrodynamics, quantum theory of weak interactions, and quantum chromodynamics. Naturally, the quantum gravidynamics or the field theory of gravitation - should take its place in this line.
In 1915 Albert Einstein published his basic equations of general relativity and thus opened another way for gravitational theory. GR treats the gravity as a curvature of the space itself caused by all non-gravitational matter, but not as a kind of material field distributed in space. Wheeler called this approach later as geometrodynamics. According to Einstein, the gravitational interaction stands aside comparing with other physical ones for which space-time is a passive background. The gravitational
force is caused not by material interaction carriers, but by curvature of space, i.e. its deviation from Euclidian geometry. In fact, this means ”the materialization of space”, because the space can be deformed, expand and even spread in the form of gravity waves. Thus, at the beginning of 20th century there formed two alternative ways for the theory of gravitation. The way of Poincare — is the description of gravity as a relativistic quantum field in flat space-time, the unique approach to all physical fields. The way of Einstein — is the reduction of gravity to space-time curvature, i.e. the statement of gravity as an exclusive among others interaction.
2.2 Gravity as a geometry of space
The overwhelming majority of works in gravity theory follow the way opened by Einstein. At the beginning of its development, the geometrical description of gravity was strongly motivated by the
principle of equivalence. However as it was emphasized by Fock, strictly speaking it is not a physical but a ”philosophical” principle. Indeed, there are many variants of its formulation but they cannot be tested experimentally. The real background of geometrical approach is the so called principle of geometrisation, according to which all gravitational phenomena can be described by the metric of the Riemann space gik. Modern achievements of GR are presented in a collection of review articles ”Three hundred years of gravitation” (1987) edited by Hawking and Israel.
It should be noted that GR is a mathematically precise non-linear theory without any inner limitations to its physical applications. Thus the solutions of the Einstein’s equations are considered to be physically valid both inside and outside the gravitational radius Rg = 2GM/c2, end even up to infinite densities in singularity. Moreover geometrical approach yields the infinite gravitational force at the finite radius Rg. The infinite force cannot be balanced by any finite (non-gravitational) force and this leads to body’s collapse to singularity, the so called ”black hole”. GR inevitably comes to existence of such exotic objects (strictly speaking mathematical ones) as black holes with infinite forces, time machines with junction between past and future, expanding universes with continuous creation
of space. The prediction of ”black holes” is believed to be one of the great achievements of GR, while the problem of energy of gravitational field is considered as its ”Achilles heel” for more then 80 years. This problem is a permanent point of discussion in literature since the work of Schr¨odinger in 1918 in which he showed that the energy-momentum complex in GR is not a tensor (i.e. it has no definite physical value). The roots of this problem are connected with backgrounds of geometrical approach. Actually, the flat space guaranties the conservation laws of energy, momentum and angular momentum according to Noether’s theorem. This problems has been under discussion in recent years by Logunov with
collaborators (see his book ”Lectures on relativity theory and gravitation”). Rejection of flat space inevitably leads to fundamental difficulties with energy conservation. The famous statement from the
textbook of Landau and Lifshitz (1971), ch. 11, sec. 96, is that general covariant form of energy conservation Tk i;k = 0 (1) actually ”does not express any conservation law whatever”, and it presents just brilliant form of energy problem in GR. Moreover, the infinite gravitational force acting at the gravitational radius of a ”black hole” require infinite energy of gravitational field (of course if it exists). Among the ”standard solutions” of the energy problem in GR there are such statements as the absence of the ”old” concept of energy of gravitational field, or that the gravitational energy is a non-localizable quantity. If the former takes place, it is unclear why so much efforts are devoted to build gravity wave detectors, the devices just aimed to localize gravitational energy. Non-local energy
cannot be treated in quantum way, and this is a reason why there are no geometrical quantum theory of gravitation. Also this is why there are attempts to construct in the frame of GR the true energy-
momentum tensor of gravity ”field” (see e.g. Babak&Grishchuk,1999). However the geometrical approach (by definition, via the principle of equivalence) excludes both gravity force and localaizable
energy of gravity. Hence the only way to construct the true EMT of gravity field is actually to develop the true field approach as discussed below.
In FTG gravitational field energy is always positive and there are no problems with infinities. These simple physical considerations demonstrate the importance of EMT in gravitational physics and radical change of theory with change of the sign of field energy.
CURRICULUM VITAE
(version September 2000)
Yurij Victorovich Baryshev
Astronomical Institute
of the Saint-Petersburg State University
UNIVERSITY ADDRESS
Astronomical Institute
St.Petersburg State University
Bibliotechnaya pl.2, Stary Peterhof,
St.Petersburg, 198904
RUSSIA
Phone: +7-8...
+7-8...
Fax: +7-812-428 7129
E-mail:
yuba@astro.spbu.ru
PERSONAL
Date and place of burth: May 8, 1948 in St.Petersburg (former Leningrad), RUSSIA
Personal address: ul. Kupchinskaya 8,korp.1,kv.453
St.Petersburg, 192281, Russia
Phone: +7-8...
Married
2 children
PROFESSIONAL SUMMARY
Yurij Baryshev has been at the Astronomical Institute of the
St.Petersburg State University for the past twenty years. He is
currently a Senior Reseacher at the Laboratory of Active
Galactic Nuclei. His professional activities at the Astronomical
Institute involve scientific reseach, graduate and undergraduate
special courses. The main field of his research interests is
relativistic astrophysics with emphasis on foundation of physics of
gravitational interaction. He investigates relativistic tensor field
approach to gravity, active galactic nuclei, quasars, gravitational
radiation from astrophysical objects, gravitational lensing by dark
matter. He studies implications for cosmology of the recent
discovery by the Rome University's group of the fractal structure of
the large scale galaxy distribution. He has been developing critical
astrophysical tests for modern cosmological theories.
EDUCATION
1985
Ph.D. Astrophysics
St.Petersburg (former Leningrad) State University
St.Petersburg, RUSSIA
1973
M.S. Radio physics,
St.Petersburg (former Leningrad) Electro-Technical University,
St.Petersburg, RUSSIA
EMPLOYMENT HISTORY
1979 -present
Senior Researcher
Astronomical Institute of the St.Petersburg State University
St.Petersburg, RUSSIA
1973 - 1979
Research Assistant,
Special Astrophysical Observatory of the Russian Academy of Sciences
Nyznij Arhyz, RUSSIA
MEMBERSHIP IN PROFESSIONAL SOCIETIES
International Astronomical Union
AWARD
Medal of St.Petersburg State University, 1999
LANGUAGES
Russian, English
LIST OF PUBLICATIONS - YURIJ V. BARYSHEV
Articles in journals:
1. Field-theoretical approach to gravity.
V.V.Sokolov, Yu.V.Baryshev.
Gravitaziya i teoriya otnositelnosti, vol.17,pp.34-42,1980.
2. Hierarchical structure of Metagalaxy.
Yu.V.Baryshev.
Astrofizicheskie Issledovaniya: Izvestiya Spetsialnoi
Astrofizicheskoi Observatorii, vol.14, pp.24-43, 1981.
English translation: 1984 by Allerton Press. Inc.
3. Gravitational radiation of the binary pulsar PSR1913+16.
Yu.V.Baryshev.
Astrofizika, vol.18,pp.93-99, 1982.
English translation : Astrophysics, 18,1982.
4. Kinematical models of powerfull radio galaxies and statistics of
extended components.
Yu.V.Baryshev.
Astrofizika, vol.19, pp.461-469, 1983.
English translation : Astrophysics, 19, 1983.
5. Precessing jet model for classical double radio sources.
Yu.V.Baryshev.
Pisma Astron.Zh., vol.9,pp.591-594, 1983.
English translation : Sov.Astron.Lett.9(5),1983.
6. Relativistic tensor theory of gravitational field in flat
space-time.
Yu.V.Baryshev, V.V.Sokolov.
Trudy Astron.Obs.Len.Univ.,vol.38,pp.36-61, 1983.
7. Some astrophysical consequence of dynamical interpretation of
gravitation.
Yu.V.Baryshev,V.V.Sokolov.
Astrofizika, vol.21, pp.361-366, 1984.
English translation : Astrophysics,21,1984.
8. Equations of motion for test particles in Lorentz-covariant tensor
theory of gravitation.
Yu.V.Baryshev.
Vestnik LGU, ser.1, vyp.4, pp.113-118, 1986.
9. Theoretical parameters of the powerful radio galaxies I,
Hydrodynamical Approximation.
Yu.V.Baryshev,V.N.Morozov.
Astrofizika, vol.25, pp.369-381, 1986.
English translation : Astrophysics,25,1986.
10. Theoretical parameters of the powerful radio galaxies II,
Generation of MGD turbulence by collisionless shocks.
Yu.V.Baryshev,V.N.Morozov.
Astrofizika, vol.28, pp.112-121, 1988.
English translation : Astrophysics,28,1988.
11. Theoretical parameters of the powerful radio galaxies III,
Acceleration of particles.
Yu.V.Baryshev,V.N.Morozov.
Astrofizika, vol.28, pp.273-278, 1988.
English translation : Astrophysics,28,1988.
12. A note on characteristic quantities in cosmology.
Yu.V.Baryshev,A.A.Raikov.
Astrofizika, vol.28, pp.689-691, 1988.
English translation : Astrophysics,28,1988.
13. On the entropy of self-gravitating systems.
Yu.V.Baryshev,A.A.Raikov.
Astrofizika, vol.29, pp.595-601, 1988.
English translation : Astrophysics,29,1989.
14. Conservation laws and equations of motion in the field theory
of gravitation.
Yu.V.Baryshev.
Vestnik LGU, ser.1, vyp.2, pp.80-85, 1988.
15. Potential of homogeneous ball in the field theory of gravitation.
Yu.V.Baryshev,M.A.Kovalevskij.
Vestnik LGU, ser.1, vyp.1, pp.86-91, 1990.
16. A new approach to the large cosmological numbers coincidences.
Yu.V.Baryshev, A.A.Raikov,A.G.Sergeev, A.A.Tron.
Astron.Astrophys.Transactions, vol.5, pp.27-29, 1994.
17. On the fractal nature of the large scale structure of the
universe.
Yu.V.Baryshev.
Astron.Astrophys.Transactions, vol.5, pp.15-23, 1994.
18. Facts and ideas in modern cosmology.
Yu.V.Baryshev, F.Sylos Labini, M.Montuori, L.Pietronero.
Vistas in Astronomy, v.38, part 4, pp.419-500, 1994 .
19. Kinematical models of double radio sources and the unified scheme.
Yu.V.Baryshev, P.Teerikorpi.
Astronomy and Astrophysics, v.295, pp.11-26, 1995
20. Energy of field and energy of interaction in relativistic
gravidynamics.
Yu.V.Baryshev.
Gravitatsiya, vol.1,vyp.1, pp.13-26, 1995.
English translation : Gravitation,1,1995.
21. Microwave background radiation and cosmological large numbers.
Yu.V.Baryshev, A.A.Raikov, A.A.Tron.
Astron.Astrophys.Transactions, vol.10,pp.135-138,1996.
22. On a possibility of experimental detection of the frequence
dependent gravitational bending of light.
Yu.V.Baryshev, A.G.Gubanov, A.A.Raikov.
Gravitatsiya, vol.2,vyp.1, pp.72-76, 1996.
English translation : Gravitation,2,1996.
23. Field theory of gravitation: desire and reality.
Yu.V.Baryshev.
Gravitatsiya, vol.2, vyp.2, pp.5-20, 1996.
English translation : Gravitation,2,1996.
24. Antigravitation in gravidynamics.
Yu.V.Baryshev,V.V.Sokolov.
Hyperfine Interactions, vol.109, pp.95-103, 1997.
25. Events observed by Amaldi-Weber antennas from SN1987A as a
possible detection of scalar gravitational waves.
Yu.V.Baryshev.
Astrofizika, vol.40, pp.377-389, 1997.
English translation : Astrophysics, 40, 1997.
26. Gravitational mesolensing by King objects and quasar-galaxy
associations.
Yu.V.Baryshev, Yu.L.Ezova.
Astron.Zhurnal, vol.74, pp.497-508, 1997.
English translation : Astronomy Reports, 41, N4, pp.436-446, 1997.
27. The radial space distribution of KLUN galaxies up to 200 Mpc:
incompleteness or evidence for the behaviour predicted by
fractal dimension 2?
P.Teerikorpi, M.Hanski, G.Theureau, Yu.Baryshev, G.Paturel,
L.Bottinelli, L.Gougenheim.
Astron.Astrophys., 334, pp.395-403, 1998.
28. On the fractal structure of galaxy distribution and its
implications for cosmology.
Yu.V.Baryshev, F.Sylos Labini, M.Montuori, L.Pietronero,
P.Teerikorpi.
Fractals, v.6, N.3, pp.231-243, 1998.
29. BVRI light curves of GRB970508 optical remnant and colours
of underlying host galaxy.
S.V.Zharikov, V.V.Sokolov, Yu.V.Baryshev.
Astron.Astrophys., 337, pp.356-362, 1998.
30. Quasar-galaxy associations as lensing by middle-mass objects.
A.V.Yushcenko, Yu.Baryshev, A.A.Raikov.
Astron.Astrophys.Transactions, v.17, pp.9-13, 1998.
31. Properties of the host galaxy of the gamma-ray burst 970508
and local star-forming galaxies.
V.V.Sokolov, S.V.Zharikov, Yu.V.Baryshev, M.O.Hanski,
K.Nilsson, P.Teerikorpi, L.Nicastro, E.Palazzi.
Astron.Astrophys., 344, pp.43-50, 1999.
32. Optical morphology of distant RATAN-600 radio galaxies from
subarcsecond resolution NOT images.
T.Pursimo, K.Nilsson, P.Teerikorpi, A.Kopylov, N.Soboleva,
Yu.Parijskij, Yu.Baryshev, O.Verhodanov, A.Temirova,
O.Zhelenkova, W.Goss, A.Sillanpaa, L.O.Takalo.
Astron.Astrophys.Suppl., 134,pp.505-521, 1999.
33. Conceptual problems of fractal cosmology.
Yu.V.Baryshev.
Astron.Astrophys.Transactions, 2000
Contributions to conferences:
1. Post-Newtonian hydrostatic equlibrium in the field theory of
gravitation.
Yu.V.Baryshev.
Proc. of the conf. "Relativistic astrophysics and cosmology",
held in Niznij Archyz, SAO, 19-24 September,1988.
Soobshzeniya SAO, vyp.64, pp.12-15, 1990.
2. Relativistic effects on emission of optically violently variable
extragalactic objects.
M.K.Babadzhanyants, Yu.V.Baryshev, E.T.Belokon.
Proc. of the conf. "Relativistic astrophysics and cosmology",
held in Niznij Archyz, SAO, 19-24 September,1988.
Soobshzeniya SAO, vyp.64, pp.47-54, 1990.
3. An upper limit on hidden mass of fractals of galaxies.
Yu.V.Baryshev.
Proc. of the conf. "Relativistic astrophysics and cosmology",
held in Niznij Archyz, SAO, 19-24 September,1988.
Soobshzeniya SAO, vyp.64, pp.86-88, 1990.
4. Stability of supermassive stars in the field gravitation
theory.
Yu.V.Baryshev.
Proc.of the XIII workshop "Problems on high energy physics and
field theory, held in Protvino, 9-13 July,1990.
Moscow, Nauka, 1991, pp.61-66.
5. Pulsation of supermassive star in the tensor field gravitation
theory.
Yu.V.Baryshev.
Proc. of the conf. "Variability of Blazars", held in Turku,
January 6-10, 1991.
Cambridge Univ.Press,1992, pp.52-54.
6. Optically violently variable active galactic nuclei as
supermassive binary systems.
M.K.Babadzhanyants, Yu.V.Baryshev, E.T.Belokon.
Proc. of the conf. "Variability of Blazars", held in Turku,
January 6-10, 1991.
Cambridge Univ.Press,1992, pp.45-51.
7. Quasar-galaxy associations as a result of gravitational lensing
by objects of medium masses.
Yu.V.Baryshev, A.A.Raikov, A.V.Yushcenko.
Proc. of the conf. "Gravitational lenses in the Universe",
held in Liege, Belgique, June 21-25, 1993.
Liege, 1993, pp.307-310.
8. Gravitational lensing inside fractal structure.
Yu.V.Baryshev, A.A.Raikov, A.A.Tron.
Proc. of the conf. "Gravitational lenses in the Universe",
held in Liege, Belgique, June 21-25, 1993.
Liege, 1993, pp.365-368.
9. A quantum limitation on the gravitational interaction.
Yu.V.Baryshev, A.A.Raikov.
Proc.of the XVII workshop "Problems on high energy physics and
field theory", held in Protvino, June 27 - July 1, 1994.
Protvino, 1995, pp.166-168.
10. On a possibility of scalar gravitational wave detection from the
binary pulsar PSR 1913+16.
Yu.V.Baryshev.
Proc. of the first Amaldi conf. "Gravitational wave experiment",
held in Frascati, 14-17 June, 1993.
World Sci.Publ., 1995, pp.251-260.
11. Hubble-de Vaucouleurs paradox in the fractal Universe.
Yu.V.Baryshev.
Proc. of the conf. "Modern problems in extragalactic astrophysics",
held in Puschino (Moscow), 8-13 May, 1997.
12. Evidance for dark matter in different scales from the KLUN
galaxy sample.
M.O.Hanski, P.Teerikorpi, T.Ekholm, G.Theureau,
Yu.Baryshev, G.Paturel, P.Lanoix
Proc. of IAU Colloc.174, "Small Galaxy Groups", held in Turku,
Finland, June 1999.
13. Conceptual problems of fractal cosmology.
Yu.V.Baryshev
Proc. of Gamow Memorial Conference, St.Petersburg,
Russia, August 1999.
Contributions to books:
1. Modern state of observational cosmology.
Yu.V.Baryshev.
in "Gravitation and cosmology".
Itogi Nauki i Tehniki, ser. Classicheskaya teoriya polya i
gravitatziya, tom 4, Moskva VINITI ,1992, pp.89-135.
2. Fundamental questions of practical cosmology.
Yu.V.Baryshev, P.Teerikorpi.
Kluwer Academic Publishers, (in preparation).