Abstract
It is indicated that, of the two fundamental theories of physics, namely, the quantum theory of fields and the spacetime theory of gravitation, the former is mathematically underdetermined and the latter overdetermined. When properly revised, the two theories seem to merge into a geometrically based general framework theory free of the usual difficulties. In particular, a finite and viable quantum theory of gravity satisfying all necessary correspondence requirements seems to be possible. The result, however, still suffers from the usual lack of intuitive comprehension of quantum processes. In this article an effort is made to remedy the latter situation via a unitary concept of a field quantum we call wave-particle unity.
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The pseudotensor z μ v is more general than originally treated in H. Y., Toward a Field Theory of Gravitation, Nu. Cim., 107B, 8, (1992), 941–960. See Section 5.1 and Reference 17.
In Ref. 1. a version of Rule 3 was introduced via the principle of causality but without the correspondence to the finite integrals. This led to a & -function only the first term of which satisfies the correspondence and which is here reproduced. A possible derivation is given in Section 5.2
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Start with {ituv = EdElpdp = c}{su{it2}} and integrate it into, {itE}{su{it2}} ={itc}{su{it2}}{itp}{su{it2}} + {itK = m}{su{it2}}{itc}{su{it2}}. Since {itp} = {itmv}, and for {itp = 0 →} {itK = m}{in0}{su{it2}}{itc}{su{it4}}, one immediately gets {itm} = m{in0}/√(1 — {itv}{su2}{itc}{su{it2}})
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Yilmaz, H. (1997). Toward a Comprehensible Physical Theory: Gravity and Quantum Mechanics. In: Jeffers, S., Roy, S., Vigier, JP., Hunter, G. (eds) The Present Status of the Quantum Theory of Light. Fundamental Theories of Physics, vol 80. Springer, Dordrecht. https://doi.org/10.1007/978-94-011-5682-0_47
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DOI: https://doi.org/10.1007/978-94-011-5682-0_47
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