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III. Ecosmos: A Revolutionary Organic Habitable UniVerse

A. Quantum Cosmology Unity

    A grand convergence and unification of globalwise studies about atomic and cosmic physics from an original singularity across the temporal, expansive universe has occurred over since the 1990s. After an inflationary big bang, a sequence of quarks, muons, baryons and other particles synthesized into nuclear elements and chemical compounds. Slight gravitational ripples led to coalescing galaxies and prolific solar systems. Today, a sensate Earthscope finds and joins a celestial vista from infinitesimal bosons and maybe strings to infinite stochastic cosmoses. This fractal image is from the Lunar Archives site: www.lunararchives.com and is titled Beginnings.


When quantum mechanics was developed in the 1920s another revolution in physics was just starting. It began with the discovery that the universe is expanding. For a long time quantum mechanics and cosmology developed independently of one another. Yet the very discovery of the expansion would eventually draw the two subjects together because it implied the big bang where quantum mechanics was important for cosmology and for understanding and predicting our observations of the universe today. (James Hartle, arXiv:1901.03933)

As our phenomenal Earthkinder intellect applies itself over years and decades to mathematically join inflationary quantum depths with expansive cosmic breadth so to represent a whole universe to human scenario, the endeavor became known by the composite title. A search of the term on the arXix.org physics eprint site returns some 80,000 hits. This QC section first sorts into this deeply technical phase, followed by Cosmos about its spatial and temporal population of galaxies, sunny stars, common planets, all arrayed in a stochastic proliferation. Quantum Organics reports a second revolution moving beyond opaque arcanda to a familiar, classical treatment. And for these EarthWise reasons and abilities, it is now possible to contemplate, quantify, and maybe detect exocosmoses far afield. But our homo to anthropo sapience mostly goes on as a simple agency, unawares that we are carrying out a crucial requirement for a self-describing, comprehending, realizing, selecting genesis cocreation.

2020: This title phrase arose in the 1980s as it was realized that mathematic phenomena at the universe’s point of origin had a quantum physical nature. Into the 21st century this evidential synthesis across this widest micro to macro expanse has been well worked out. Issues and nuances may remain over the inflationary moment, but as Planck satellite results affirm, the theoretical basis is basically correct. It can now be put that our collective human inquiry and acumen has been able to find and quantify a whole scale unitifcation so as to form an integral identity.

Bojowald, Martin. Foundations of Quantum Cosmology. Online: IOP Publishing, 2020.

Calcagni, Gianluca. Classical and Quantum Cosmology. Europe: Springer, 2017.

Chamcham, Khalil, et al, eds. The Philosophy of Cosmology. Cambridge: Cambridge University Press, 2017.

Erhard, Manuel, et al. Advances in High Dimensional Quantum Entanglement. arXiv:1911.10006.

Hartle, James. Arrows of Time and Initial and Final Conditions in the Quantum Mechanics of Closed Systems Like the Universe. arXiv:2002.07093.

Kiukas, Jukka, et al. Complementary Observables in Quantum Mechanics. Foundations of Physics. Online April, 2019.

Sanchez, Norma. New Quantum Phase of the Universe before Inflation. arXiv:1912.06655.

Smolin, Lee. Einstein’s Unfinished Revolution: the Search for What Lies Beyond the Quantum. New York: Penguin, 2019.

Tegmark, Max. Our Mathematical Universe. New York: Knopf, 2014.

Turok, Neil. The Universe Within: From Quantum to Cosmos. Toronto: House of Anansi Press, 2012

Wilczek, Frank. Physics in 100 Years. arXiv:1503.07735.

Ambjorn, J., et al. The Universe from Scratch. Contemporary Physics. 47/2, 2006. By way of a method to observe and quantify a fluctuating quantum geometry at Planck scales (10-33 centimeters) called Causal Dynamical Triangulations.

The paradigm of spacetime beginning to emerge from CDT is that of a scale-invariant, fractal and effectively lower-dimensional structure at the Planck scale, which only at a larger scale requires well-known features of geometry which accord with our classical intuition. (115)

Ananthaswamy, Anil. Cosmic Countdown. New Scientist. July 20, 2019. A science writer (search) gathers and reports on a florescence of physical theories in the literature that appear to presage revolutionary cosmologies. A working image of a Swampland (search arXiv), coined by Harvard physicist Cumrun Vafa, contains mix or miasma of string theories, quantum gravity, relativity, de Sitter vacuum, covariant entropy, black holes, and more conjectures. The article is based on interviews with Vafa, Andrei Linde, Eran Palti, Catherine Heymans, and others, along with Anil’s familiar experience (search). Something deeply vital seems to be brewing, which may lead to novel understandings, or wind up at a new square one. See, for example, The Swampland: Introduction and Review by Palti at arXiv:1903.06239, and Towards a Unified View of Swampland Conjectures by Cesar Gomez (1907.13386).

Anders, Janet and Karoline Wiesner. Increasing Complexity with Quantum Physics. Chaos. 21/037102, 2011. University College London and University of Bristol physicists continue the realization that their fields of study have much akin with the subject and theory of nonlinear systems. Statistical mechanics joined forces circe 2007, here it is extended within a seamless nature as it must into quantum phenomena. The Article Outline introduces, enters “laws of quantum physics,” then “quantum complexity” with an emphasis on computational correlations, phase transitions, and effects in biology and thermodynamics.

We argue that complex systems science and the rules of quantum physics are intricately related. We discuss a range of quantum phenomena, such as cryptography, computation and quantum phases, and the rules responsible for their complexity. We identify correlations as a central concept connecting quantum information and complex systems science. We present two examples for the power of correlations: using quantum resources to simulate the correlations of a stochastic process and to implement a classically impossible computational task. (037102)

Ashtekar, Abhay, et al. Quantum Nature of the Big Bang. Physics Review Letters. 96/141301, 2006. The cosmic singularity can be made more predictable by way of the theories of loop quantum gravity. A quantum bridge is then proposed to link two classical universes, one contracting, the other expanding.

Bachlechner, Thomas, et al. Axion Landscape Cosmology. arXiv:1810.02822. We cite this entry by physicists TB, UC San Diego, Kate Eckerle and Oliver Janssen, University of Milan, and Matthew Kleban, NYU as their latest paper which by mathematical finesses that seem to allude to sentient beings able to learn this. I heard Kleban speak on The Axidental Universe at UM Amherst on November 9, second abstract below, and see also by this team Multiple-Axion Framework in Physical Review D (98/061301, 2018).

We study the cosmology of complex multi-axion theories. With O(100) fields and GUT scale energies these theories contain a vast number of vacua, inflationary trajectories and a natural dark matter candidate. We demonstrate that the vacua are stable on cosmological timescales. In a single theory, both large- and small-field inflation are possible and yield a broad range of cosmological observables, and vacuum decay can be followed by a relatively large number (> 60) of efolds of inflation. Light axions stabilized by gravitational instantons may constitute a natural dark matter candidate that does not spoil an axion solution to the strong CP problem. (Abstract)

I will describe how a "landscape" theory with all energy scales at the Planck scale and randomly chosen parameters can account for the basic features of cosmology — why our universe is so big, so flat, so old, has adiabatic and scale invariant density perturbations at large scales with an amplitude ~1/100,000, why dark matter and dark energy are comparable today, and why the dark energy density is so small. Requiring the minimal anthropic condition that collapsed structures form selects out cosmological histories that tunnel and then undergo ~60 efolds of inflation post-tunneling. Hence, such theories generically produce large universes with expansion histories very much like our own, including a big bang (tunneling), slow-roll inflation, dark matter, and dark energy. The implication is that these features should perhaps not be regarded as surprising. (Kleban Abstract)

Bartelmann, Matthias, et al. Cosmic Structure Formation with Kinetic Field Theory. Annalen der Physik. 531/11, 2019. A ten person team from the University of Heildeberg and ETH Zurich offer further ways that this KFT mathematical conception, initiated by the lead author and colleagues in the earlier 2010s, can be seen well reflect and explain the variegated shape and course of celestial topologies. Search the arXiv eprint site by Bartelmann and the KFT term for much more.

Kinetic field theory (KFT) is a statistical theory for an ensemble of classical point particles in or out of equilibrium. We here review its application to cosmological structure formation by adapting it to an expanding spatial background and the homogeneous and isotropic, correlated initial conditions for nonlinear cosmic formations. Three approaches are developed which rest either on expanding an interaction operator, averaging the interaction term, or resumming perturbation terms. (Abstract excerpt)

Bohm, David. Wholeness and the Implicate Order. London: Routledge & Kegan Paul, 1980. The philosophical physicist draws upon unique insights into quantum theory to describe how an “explicate,” overt universe, its life forms and human dialogic consciousness, emanates from and reflects an “implicate,” unmanifest order.

Bojowald, Martin. Foundations of Quantum Cosmology. Online: IOP Publishing, 2020. This latest volume by Penn State University theoretical physicist offers a wide-ranging survey along with in-depth mathematical aspects. Its chapters are Universe on Large and Small Scales, Covariance, Quantum Corrections, Minispace Models, Quantum Gravity, and Inhomogeneous Spacetimes.

Bojowald, Martin. Quantum Cosmology: A Review. Reports on Progress in Physics. 78/023901, 2015. The Penn State physicist posts an extensive technical update on the two decade project to coherently join these disparate spatial and temporal domains.

Bojowald, Martin. The Universe: A View from Classical and Quantum Gravity. Weinheim: Wiley-VCH, 2013. The Penn State physicist provides to date an expansive, topical survey from quantum cosmology, black holes, atomic particles, to relativity, waves, states, measurement, and stellar reaches from the big bang to unifications. In regard, a number of cosmic “singularities” are recognized. Now could these novel human abilities to achieve such descriptions, as the apparent way a genesis universe tries to quantify and perceive itself, be realized as a further “singularity” of spectacular import and promise?

Bousso, Raphael. The Holographic Principle. Reviews of Modern Physics. 74/825, 2002. A technical paper on a discrete, information rich universe akin to a hologram wherein the information content or measure of a three dimensional volume of space is proportional to the area of its two dimensional outer surface. One popular writeup of this approach is Hogan, Craig. “First Light.” New Scientist. January 11, 2003. A New Scientist update of Bousso's thinking is Touching the Multiverse by Amanda Gefter in the March 6, 2010 issue.

Brumfield, Geoff. Cosmology Gets Real. Nature. 422/108, 2003. A news report on the growing affirmation by the worldwide astronomical community of the big bang evolutionary model of the universe.

By clarifying the age and make-up of the Universe, researchers have ushered in an era of precision cosmology. (108)

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