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A Sourcebook for the Worldwide Discovery of a Creative Organic Universe
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III. An Organic, Conducive, Habitable MultiUniVerse

1. Cosmos: A Galactic, Stellar, Planetary Spacescape

Varying Constants and Fundamental Cosmology. https://indico.cern.ch/event/462870/overview. A September 2016 conference held at the University of Szczecin, Poland, on this vast subject, as the quote cites. International authorities such as Jean-Philippe, John Moffat, Laura Mersini-Houghton, Paul Davies, Michael Heller, Thomas Naumann and others were among the speakers. Select papers are being published in the MDPI online journal Universe. As a reflection, it amazes that human beings seem to have a capacity to discover and quantify any breadth and depth of the material cosmos. Our minute third infinity of living, cognitive entities to have evolved so as to convert these atomic and cosmic realms into recorded knowledge.

This time the aim of the conference was to bring together specialists dealing with the problem of varying (dynamical) physical constants and a broad range of other topics. The last day of the conference was devoted to philosophical aspects of the variability of physical constants and the frontiers of physics and cosmology. Further topics: Modified gravity, Quantum cosmology, Quantum entanglement, Multiverse, Anthropic principle, Dark matter, Dark energy, Inflation and large-scale structure, Early Universe, Gravitational waves, Cosmic Microwave Background.

Abbott, Brian, et al. Virtual Universe. Natural History. April, 2004. The American Museum of Natural History has created a digital universe atlas which spans 15 stages from earth’s solar system to the far edges of the cosmos. These images can be downloaded at www.haydenplanetarium.org/hp/vo/du/download.html.

Ambjorn, Jan, et al. The Self-Organizing de Sitter Universe. International Journal of Modern Physics D. 17/2515, 2009. This paper by Ambjorn, Niels Bohr Institute, Jerzy Jurkiewicz, Jagellonian University, and Renate Loll, Utrecht University, is also available at arXiv:0806.0397. It is introduced by saying that the 1917 cosmological solution to Einstein’s field equations by the Dutch astronomer Willem de Sitter continues to guide understandings of the nature of spacetime. (See also the author’s paper “Nonperturbative Quantum Gravity” in Physics Reports, online May 2012). Highly technical physics, (many more by each scientist at arXiv), as self-similar fractal’s appear to span from quantum to quasar.

We propose a theory of quantum gravity which formulates the quantum theory as a nonperturbative path integral, where each spacetime history appears with the weight exp (iSEH), with SEH the Einstein-Hilbert action of the corresponding causal geometry. The path integral is diffeomorphism-invariant (only geometries appear) and background-independent. The theory can be investigated by computer simulations, which show that a de Sitter universe emerges on large scales. This emergence is of an entropic, self-organizing nature, with the weight of the Einstein-Hilbert action playing a minor role. Also the quantum fluctuations around this de Sitter universe can be studied quantitatively and remain small until one gets close to the Planck scale. The structures found to describe Planckscale gravity are reminiscent of certain aspects of condensed-matter systems. (Abstract, 2515)

Borrowing a terminology from statistical and complex systems, we are dealing with a typical case of “self-organization”, a process where a system of a large number of microscopic constituents with certain properties and mutual interactions exhibits a collective behaviour, which gives rise to a new, coherent structure on a macroscopic scale.3 What is particularly striking in our case is the recovery of a de Sitter universe, a maximally symmetric space, despite the fact that no symmetry assumptions were ever put into the path integral and we are employing a proper-time slicing [11], which naively might have broken spacetime covariance. There clearly is much to be learned from this novel way of looking at quantum gravity! (2519)

Ambjorn, Jan, et al. The Self-Organizing Quantum Universe. Scientific American. July, 2008. A popular article on a breakthrough conception that fittingly comes by way of Jan Ambjorn at the Neils Bohr Institute in Copenhagen, Jerzy Jurkiewicz from Jagiellonian University in Kracow, Poland, and Renate Loll with Gerald t’Hooft’s Institute of Theoretical Physics at Utrecht University. Braced by a history of quantum theory, with over ten years of technical papers accessible from the author’s websites, what is proposed is indeed a cosmic Copernican Revolution. The 20th century stringy models, inappropriate and signifying nothing, ought to be set aside. Rather a material nature graced everywhere by component ‘motes’ in relational motion reveals an innate propensity to organize and develop itself into increasingly complex phenomenal form. A fractal-like spacetime thus abides whereof the same creative patterns and processes repeat at each sequential scale and instance. Quite Nobel quality work, and if properly grasped, a profound genesis universe can begin to gain its theoretical explanation.

To put it differently, if we think of empty spacetime as some immaterial substance, consisting of a very large number of minute, structureless pieces, and if we then let these microscopic building blocks interact with one another according to simple rules dictated by gravity and quantum theory, they will spontaneously arrange themselves into a whole that in many ways looks like the observed universe. (43) Similar mechanisms of self-assembly and self-organization occur across physics, biology and other fields of science. A beautiful example is the behavior of large flocks of birds, such as European starlings. Individual birds interact only with a small number of nearby birds; no leader tells them what to do. Yet the flock still forms and moves as a whole. The flock possesses collective, or emergent, properties that are not obvious in each bird's behavior. (43)

The insensitivity to a variety of small-scale details also goes under the name of "universality." It is a well-known phenomenon in statistical mechanics, the study of molecular motion in gases and fluids; these substances behave much the same whatever their detailed composition is. Universality is associated with properties of systems of many interacting parts and shows up on a scale much larger than that of the individual constituents. The analogous statement for a flock of starlings is that the color, size, wingspan and age of individual birds are completely irrelevant in determining the flying behavior of the flock as a whole. (44-45)

Ananthaswamy, Anil. Somewhere Over the Cosmos. New Scientist. May 2, 2009. An update on the growing acceptance, percolation, even acquiescence, unto a scientific mindset (e.g., Alvin Toffler in the May/June 2009 Foreign Policy) of a multiverse infinity of cosmoses, of which our present universe is but a fleeting “random accident.” The aim of this bibliographic website is to document that such misconceived doom is wrong and destructive while in our midst a novel cosmic to human gestation is arising, if only we could altogether look for it.

Ashtekar, Abhay, et al, eds. General Relativity and Gravitation. Cambridge: Cambridge University Press, 2015. A formidable volume for the 100th anniversary occasion of Albert Einstein’s discovery of these cosmic properties, by senior scientists such as George Ellis, Malcolm MacCallum, Martin Rees, Beverly Berger, Misao Sasaki, and many others. A century later a more global, engendered effort contains Einstein’s Triumph, Gravitational Waves, Gravity is Geometry, and Beyond Einstein sections.

Barbour, Julian. The End of Time. Oxford, UK: Oxford University Press, 2000. Amongst physicist Barbour’s ruminations about the chimera of duration resides a Leibnizian view, as opposed to the Cartesian-Newtonian materialism, which perceives a finely variegated reality with each phase formed by a common principle.

Bartelmann, Matthias, et al. A Microscopic, Non-Equilibrium, Statistical Field Theory for Cosmic Structure Formation. New Journal of Physics. 18/043020, 2016. Heidelberg University astrophysicists here apply their generic theoretical conception as posted on arXiv eprint site (search MB) to celestial dimensions.

Baugh, C. M. A Primer on Hierarchical Galaxy Formation. Reports on Progress in Physics. 69/12, 2006. Along with the Mekjian paper below, a report that interstellar reaches take on the same invariant, nested geometries that grace nature everywhere.

The aim of this review is to provide an introduction to the ideas and concepts that underpin modern ideas about galaxy formation in a universe in which cosmic structures build up hierarchically through gravitational instability. (3104)

Bennett, Charles. Cosmology from Start to Finish. Nature. 440/1126, 2006. The latest views in a special section on the Early Universe. Aspects in need of work are its instant origin and ultimate fate. But the presence along the way of a personal creative intelligence able to describe such vistas, on the cusp of self-discovery, remains of no account.

With recent precise measurements of the cosmic microwave background radiation, large galaxy redshift surveys, better measurements of the expansion rate of the Universe and a host of other astrophysical observations, there is now a standard, highly constrained cosmological model. Unidentified dark particles dominate the matter content of our Universe, and mysteries surround the processes responsible for the accelerated expansion at its earliest moments and for its recent acceleration. (1126)

Berera, Arjun. The Warm Inflationary Universe. Contemporary Physics. 47/1, 2006. By joining particle physics and cosmology, the properties of dissipation and fluctuation can be added to the inflationary dynamics of cosmic origin. This achieves an improved model herein surveyed.

Berlinski, Vladimir and Marc Henneaux. The Cosmological Singularity. Cambridge: Cambridge University Press, 2017. Senior International Center for Relativistic Astrophysics Network, Italy and Free University of Brussels theorists retrospectively describe in fine mathematical facets of this phenomenal point of universal origin. See also Berlinski’s papers on the arXiv eprint site such as On the Cosmological Singularity (1404.3864).

Senior International Center for Relativistic Astrophysics Network, Italy and Free University of Brussels theorists retrospectively describe in fine mathematical facets of this phenomenal point of universal origin. See also Berlinski’s papers on the arXiv eprint site such as On the Cosmological Singularity (1404.3864).

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