ISSN: 2754-4753 | Open Access

Journal of Physics & Optics Sciences

Field Dependant Metric for Gravitational/EM Fields and a Non- Linear Transformation for Local to Proper Space-Time World

Author(s): Chandramohanan MR

Abstract

In this paper, the introduction of a metric for Gravitational Field is examined based on [4]; this can be extended to EM Fields also by change of the parameters involved (ϵ1 , μ1 ) to (ϵ2 , μ2 ) We know that E2 ‒ c2 B2 or E2 ‒B2 with is an invariant quantity for the EM Fields which can be extended to gravitational fields, as done in [1]. We discuss the metric for the gravitational case and extended to the EM fields as well. The discussion of anomalous characteristic of Lorentz Transformation (LT) and the introduction of a non-linear transformation connecting Local Space-time coordinates (ct,x) with proper system (cτ, xτ ) is continued.

Field Dependent Metric for Gravitational Field

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Conclusion

It is possible to introduce field dependent contracted tensors from € ij , μij to define filed vectors E|D, B|H and the metric dE 2 -dH2 for Gravitational/EM fields. The linear LT can be considered as a relationship between two local frames of references, whereas equations (2.8) to (2.11) give the relationship among true/proper values and their observed values in the local frames. These equations justify a general principle of fuzziness of measurements as well as the existence of a unique preferred frame viz, the proper frame of reference as suggested by H.A. Lorentz.

References

  1. Chandramohanan M R (2010) On Maxwell-Lorentz Equations (for a gravitational mass particle), Proceedings of the 17th NPA Annual conference at California State University, Long Beach, USA 7: 1-32.
  2. Feynman RP, Leighton RB (1989) Feynman Lectures on physics, Addison-Wesley, New York 2: 1-566.
  3. Griffith David J (2009) Introduction to Electro Dynamics, PHI Learning Pvt. Ltd., New Delhi 1-623.
  4. Landau LD, Lifshitz E M (1975) The classical theory of fields, ergamon Press, Oxford 1-387.
  5. Schute Bernard F (2002) A First Course in General Relativity, Cambridge University Press, U.K https://www.if.ufrgs.br/oei/santiago/fis02012/FirstCourseGR.pdf
  6. Weinberg Steven (2008) Gravitation and Cosmology, Wiley Student Edition, India, New Delhi http://lib.ysu.am/disciplines_bk/1e79c894ea57086081172d4988a8a3ce.pdf
  7. Sokolnikoff I S (1964) Tensor Analysis, John Wiley & Sons Inc., New York https://www.scirp.org/reference/ReferencesPapers?ReferenceID=1642514
  8. Dingle Herbert (1971) Science at the Cross Roads, Martin Brian & O’Keefe, Lon-don 4: 358-362.
  9. Nordenson Harold (1969) Relativity, Time and Reality, George Allen and Unwin Ltd, Ruskin House, London https:// philpapers.org/rec/NORRTA
  10. Hughes W M L (2005) Michelson-Morley Revisited or Can the Fitzgerald-Lorentz contraction be real. Proceedings of the Natural Philosophy Alliance (NPA), STORRS, USA 2: 63-66.
  11. Muller, Francisco J (2005) A Demand for a Greater Historical Justice, Proceedings of the Natural Philosophy Alliance (NPA), STORRS, USA 2: 19-20.
  12. Shtyrkov, Eugene I (2005) Observation of Ether Drift in Experiments with Geo-stationary Satellites, Proceedings of the Natural Philosophy Alliance (NPA), STORRS, USA 2: 201-205.
  13. Lorentz HA (1992) Theory of Electrons. Dover Publications Inc., New York.
  14. Lorentz H A, Einstein A, Minkowski H, Weyl H (1952) The Principle of Relativity, Dover Publications, New York 1-254.
  15. Pauli Wolfgang (1958) Theory of Relativity, Pergamon Press, London https://philpapers.org/rec/PAUTOR
  16. Whittaker E T (1960) A History of the Theories of Aether and Electricity, Nelson, London, Reprinted by Harper, New York https://www.abebooks.com/book-search/title/historytheories-aether-electricity/used/book/.
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