
III. Ecosmos: A Revolutionary Fertile, Habitable, SolarBioplanet, Incubator LifescapeE. Systems Cosmology: Fractal SpaceTimeMatter Lima, J. A. S. and R. E. de Souza. Powerlaw Stellar Distributions. Physica A. 350/303, 2005. Another example of how and where nonlinear selfsimilarities are being found on interstellar scales. Liu, Qin. Towards a Fractal Approach to Hadronization. Physica A. 338/12, 2004. One more example of the intensifying global discovery of a selfsimilar universality from quanta to humankind. Financial markets and those at the subnuclear level of matter are very much the same. (42) Maeder, Andre. Evolution of the Early Universe in the Scale Invariant Theory. arXiv:1902.10115. The Geneva Observatory astronomer (search) expands his collegial quantification of a universally repetitious selfsimilarity onto the whole evolutionary cosmos. See also The Growth of the Density Fluctuations in the ScaleInvariant Vacuum Theory by AM and Vesselin Gueorguiev at 1811.03495. Analytical solutions are obtained for the early cosmological phases in the scale invariant models with curvature k=0. The physical properties in the radiative era are derived from conservation laws and compared to those of current standard models. The critical runs of the temperature and of the expansion rate of the scale invariant models with low densities, are quite similar at the time of nucleosynthesis to those of standard models, leading to the same freezing number ratio of neutrons to protons. These results are consistent with the fact that the scale invariant models appear to not require the presence of dark matter. (Abstract) Maeder, Andre. The Acceleration Relation in Galaxies and Scale Invariant Dynamics. arXiv:1804.04484. We cite this work by a Geneva Observatory astronomer records in 2018 how a broad and deep cosmic selfsimilarity, only spurious two decades ago, has now become commonly accepted, Here a collaborative technical presentation explains in extensive detail. See also SelfSimilar Behavior in Galaxy Dynamics and Distributions of Dark Matter at 1804.06212. We show that the scale invariant theory, with the assumption of the scale invariance of the empty space, correctly predicts the observed deviations in the acceleration relation. The large deviations and the flattening of the acceleration relation observed for the dwarf spheroidal galaxies are also well described. The presence of dark matter is no longer necessary in the scale invariant context, which also accounts why dark matter usually appears to dominate in galactic regions with low baryonic gravities. (Abstract excerpt) Maeder, Andre and Vesselio Gueorguiev. ScaleInvariant Dynamics of Galaxies, MOND, Dark Matter and Dwarf Spheriodals. arXiv:2001.04978. Geneva Observatory and Institute for Advanced Physical Studies, Sofia astrophysicists report further evidence for nature’s pervasive celestial selfsimilarity. In regard, when we first posted this section in the early 2000s, a detection of any fractal forms in space was spurious and patchy. At this new 2020 decade dawns, their presence in every feature across the spatial raiment and its temporal course are now well proven. By a natural philoSophia, might we contemplate where do these ordained, nonrandom mathematical regularities come from. Might we wonder and as whatever reality put them there in the first place. The ScaleInvariant Vacuum (SIV) theory is based on (Herman) Weyl's Integrable Geometry, endowed with a gauge scalar field. The main difference between MOND (Modified Newtonian Dynamics) and the SIV theory is that the first considers a global invariance of space and time, where the scale factor λ is constant, while the second considers λ as a function of time. The SIV theory shows an excellent agreement with observations and with MOND for baryonic gravities. These results support the view that there is no need for dark matter and that the RAR (Radial Acceleration Relation) and dynamical galaxies can be interpreted by a modification of gravitation. (Abstract excerpt) Marcolli, Matilde and Nicolas Tedeschi. Multifractals, Mumford Curves and Eternal Inflation. PAdic Numbers, Ultrametric Analysis, and Applications. 6/2, 2014. We select this certain paper as an example of the infinite brilliance of an ordained human ability to quantify and comprehend any breadth and depth of natural phenomena. In this new journal described below, Caltech mathematicians contribute to our project as the universe’s way of consciously perceiving how thee and we came into being and becoming. Search Karthnik Siva for more of the lead author’s contributions. We relate the Eternal Symmetree model of Harlow, Shenker, Stanford, and Susskind to constructions of stochastic processes related to quantum statistical mechanical systems on CuntzKrieger algebras. We extend the eternal inflation model from the BruhatTits tree to quotients by padic Schottky groups, again using quantum statistical mechanics on graph algebras. (Abstract) McAteer, James. Frozenin Fractals All Around: Inferring the Large Scale Effects of SmallScale Magnetic Structure. arXiv:1506.07914. A New Mexico State University, Solar Physics and Space Weather Group astronomer surveys the latest findings of a pervasive, inherently selfsimilar topology of the celestial raiment. See also 25 Years of SelfOrganized Criticality: Numerical Detection Methods at arXiv:1506.08142 with McAteer as the lead author. The largescale structure of the magnetic field in the solar corona provides the energy to power largescale solar eruptive events. Our physical understanding of this structure, and hence our ability to predict these events, is limited by the type of data currently available. It is shown that the multifractal spectrum is a powerful tool to study this structure, by providing a physical connection between the details of photospheric magnetic gradients and current density at all size scales. Three specific predictions are provided to test this theory: the multifractal spectra will not be dependent on the data type or quality; quietSun gradients will not persist with time; structures with large current densities at large size scale will be the source of energy storage for solar eruptive events. (Abstract) McCullagh, Nuala, et al. Toward Accurate Modeling of the Nonlinear Matter Bispectrum. arXiv:1507.07824. As the Abstract explains, McCullagh, Institute of Computational Cosmology, Durham University, UK, Donghui Jeong, Institute for Gravitation and the Cosmos, Penn State University, and Alexander Szalay, Johns Hopkins University cite one more approach that reveals a selfsimilar, infinitely iterative ecosmos. Accurate modeling of nonlinearities in the galaxy bispectrum, the Fourier transform of the galaxy threepoint correlation function, is essential to fully exploit it as a cosmological probe. In this paper, we present numerical and theoretical challenges in modeling the nonlinear bispectrum. First, we test the robustness of the matter bispectrum measured from Nbody simulations using different initial conditions generators. We then compare various analytical formulas and empirical fitting functions for modeling the nonlinear matter bispectrum, and discuss the regimes for which each is valid. We find that the nexttoleading order (oneloop) correction from standard perturbation theory matches with Nbody results on quasilinear scales for z≥1. (Abstract excerpts) Miniati, Francesco and Andrey Beresnyak. SelfSimilarity of Dynamo Action in the Largest Cosmic Structures. Nature. 523/59, 2015. Amongst a current rush of reports which confirm this ubiquitous topology, ETH Zurich and Royal Institute of Technology, Stockholm, physicists find galactic clusters, which are turbulent, magnetized media formed by gravitational instabilities, to exhibit a fractal topology. The permanent character of this hierarchy reflects yet another type of selfsimilarity in cosmology, while its structure, consistent with current data, encodes information about the efficiency of turbulent heating and dynamo action. The paper is also posted at arXiv:1507.01940. Miniati, Francesco and Andrey Brersnyak. SelfSimilar Energetics in Large Clusters of Galaxies. Nature. 523/59, 2016. ETH Zurich and Stockholm University astrophysicists continue to quantify how dynamic celestial phenomena exhibit invariant processes and topologies. Massive galaxy clusters are filled with a hot, turbulent and magnetized intracluster medium. Still forming under the action of gravitational instability, they grow in mass by accretion of supersonic flows. These flows partially dissipate into heat through a complex network of largescale shocks, while residual transonic (nearsonic) flows create giant turbulent eddies and cascades. Here we report that the energy components of the intracluster medium are ordered according to a permanent hierarchy, in which the ratio of thermal to turbulent to magnetic energy densities remains virtually unaltered throughout the cluster’s history, despite evolution of each individual component and the drive towards equipartition of the turbulent dynamo. The permanent character of this hierarchy reflects yet another type of selfsimilarity in cosmology, while its structure, consistent with current data, encodes information about the efficiency of turbulent heating and dynamo action. (Abstract excerpts) Mittal, A. K. and Daksh Lohiya. Fractal Dust Model of the Universe Based on Mandelbrot’s Conditional Cosmological Principle and General Theory of Relativity. Fractals. 11/2, 2003. By which certain problems of previous theoretical formulations with regard to a fractal cosmos are resolved. Murdzek, R. and O. Iftimie. The SelfOrganizing Universe. Romanian Journal of Physics. 53/34, 2008. Alexandru Ioan Cuza University scientists contend that such nonlinear dynamics and geometries stretching across celestial reaches imply a cosmos whose own propensities proceed to structure itself. The full paper is available online as a previous arXiv posting. The most recently completed redshift surveys, such as 2dFGRS, reveal spectacularly complex structures in galaxy distribution. These structures are described in terms of filaments, clusters and voids and are usually characterized by using fractal geometry language. In this paper it is shown that the fractal dimension of the large scale distribution of galaxies presents scaling behavior well described by a Verhulsttype law. This result is in agreement with the idea that the Universe we observe today is a selfstructured system which emerges from a nonlinear selforganizing phenomenon. (Abstract, 601)
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