COMPLEXITY IN SPACETIME AND GRAVITATION - I - FROM CHAOS TO SUPERCHAOS

Citation
J. Argyris et al., COMPLEXITY IN SPACETIME AND GRAVITATION - I - FROM CHAOS TO SUPERCHAOS, Chaos, solitons and fractals, 9(10), 1998, pp. 1651-1701
Citations number
141
Categorie Soggetti
Mathematics,"Physycs, Mathematical",Mathematics,Physics,"Physycs, Mathematical
ISSN journal
09600779
Volume
9
Issue
10
Year of publication
1998
Pages
1651 - 1701
Database
ISI
SICI code
0960-0779(1998)9:10<1651:CISAG->2.0.ZU;2-N
Abstract
We intend to show in this paper that the two fundamental concepts of t he 'Grand Unification' and the 'Chaos Theory' are essential constituen t elements of a 'theory of everything' and appertain, in fact, to the overall domain of complexity in space, time and gravitation. The autho rs hope that the present paper may offer suggestions for the necessary methodology in the analysis of complex problems. Following a short re view of the main concepts describing conventional complexity, we intro duce as an example of a possible development in standard paradigms, a new type of Rayleigh-Benard instability which may be generated in the interior of a gravitating body and may be the cause of earthquake phen omena. We define the new terminologies of constructive and destructive resonances es in relation to the stability of the solar system. We at tempt to find a physical argument in support of the invariant characte r of a gravitational chaos. Within the frame of a Riemannian spacetime we obtain also a mathematical formulation of El Naschie's conjecture: gravity is caused by an average deviation of fractal time from linear uniform time. We study also in some detail the physics of black holes because black holes offer perfect laboratories for all manifestations of complexities and simplicites. We stress that singularities as well as chaos demonstrate an invariant character. Even the Schwarzschild r adius, which was initially considered to be merely a coordinate singul arity, is found to retain or deepen its physical significance by diffe omorphisms. Symmetry principles in particle physics and continuous att empts to find a fundamental and unique constituent (strings, p-branes, etc.) of matter are reviewed and their link with complexity, dimensio nality of spacetime and chaos is indicated. Particular attention is pa id to spontaneous symmetry breaking and the Higgs mechanism in the con text of a cascade of concepts: classical lattice gas, Ising, model, or der-disorder transition, inflationary scenario, and the universe as a lattice. This cascade tends to confirm the universality of the lattice structure of the universe. In the final section of this first part of the paper we propose a novel multi-spherical cosmic fractal as a mode l of homogeneous and isotropic cosmologies. If chaos is generated at t he level of a background-arena in spacetime, then additional chaotic m anifestations generated in this arena represent chaos on a higher leve l or scale. The suggestion is offered that a chaos on a higher level c alled 'superchaos' interlaces with chaotic effects at different lower levels. The two other prospective parts of the paper will refer to the subjects: Part 2. Chaoticity of Anisotropic Cosmologies. Part 3. Elem entary Particles, Dark Matter and Information Aspects in Relativity. ( C) 1998 Elsevier Science Ltd. All rights reserved.