(logo) Natural Genesis (logo text)
A Sourcebook for the Worldwide Discovery of a Creative Organic Universe
Table of Contents
Genesis Vision
Learning Planet
Organic Universe
Earth Life Emerge
Genesis Future
Recent Additions

III. Ecosmos: A Revolutionary Fertile, Habitable, Solar-Bioplanet Lifescape

This extensive chapter after Natural Genesis Vision and Planetary Prodigy wishes to outline an abiding milieu as an historic 2ist century universe to wuman revolution. No longer an accidental entropic mechanism, once more Earth and people are returned to a central place and purpose, this time at the frontier of an animate temporal procreation. Our hope is to identify, communicate and document a conducive, amniotic spacescape for the emergence of ovular worlds, embryonic life, mind and self-aware, intelligent, creative beings on fertile bioplanets as it comes into view by way of our emergent worldwise 2020 vision.

View the 1 Bibliographic Entries

A. UniVerse Alive: An Organic, Self-Made, Encoded, Personal Procreativity

A continuous thread seems to link together the events of the history of the Universe, from the Big Bang to the advent of Homo sapiens. The striking continuity of the general pattern of evolution suggests that the Universe was pregnant with life since beginning, and the biosphere was right from the start pregnant of mankind. Francesco Gaeta

Over the ages and stages of our human wonderment, by turns an aboriginal, mystic animism was overtaken by a sterile, mechanical physics, especially in the last century. But into a new millennium, an emergent transition to a global, personsphere collaboration seems on the way to quantifying a conducive uniVerse and procreative geobiosphere. Two prime aspects involve living systems reaching deeper into a fertile chemical ground, and how such material substrates are becoming spontaneously active. As one now reviews in mid 2020, an evolutionary developmental gestation can be perceived all the way from a singular cosmic origin to humankinder’s worldwide sentience. But this revolutionary reproductive reanimation has not yet been well documented and commonly recognized. We offer these many annotated references, almost 9,000 in all, to respectfully help reveal and aver an innately life-friendly, amniotic milieu. This present section, along with Consilience of Biology and Physics, Systems Physics, Systems Chemistry and Universal Evolution, attempt to flesh out a consummate array evidential advances in our midst.

2020: Over the ages and stages of our human wonderment, by turns an aboriginal, mystic animism was replaced by a sterile mechanical physics, especially in the last century. But into the 21st century, an emergent transition to personsphere collaborations seems on the way to quantifying and recovering a procreative geobiosphere in an organically conducive uniVerse. Two aspects involve living systems reaching and rooting deeper into a material ground, and how such basic substrates are now seen as spontaneously fertile. Circa 2020, an evolutionary developmental gestation might be glimpsed from a singular ecosmic origin all the way to humankinder’s worldwide sentience.

Barge, Laura, et al. From Chemical Gardens to Chemobrionics. Chemical Reviews. 115/8652, 2015.

Barrow, John, et al, eds. Fitness of the Cosmos for Life: Biochemistry and Fine-Tuning. Cambridge: Cambridge University Press, 2007.

Chen, Irene and Martin Nowak. From Prelife to Life: How Chemical Kinetics Become Evolutionary Dynamics. Accounts of Chemical Research. 45/12, 2012.

Cronin, Leroy and Sara Walker. Beyond Prebiotic Chemistry. Science. 352/1174, 2016.

Egel, Richard. Life’s Order, Complexity, Organization, and Its Thermodynamic-Holistic Imperatives. Life. Online November, 2012.

Garcia-Ruiz, Juan Manuel, et al. Mineral Self-Organization on a Lifeless Planet. Physics of Life Reviews. January, 2020.

Gordon, Richard and Alexei Sharov, eds. Habitability of the Universe before Earth. Amsterdam: Academic Press/Elsevier, 2017.

Hazen, Robert. Symphony in C: Carbon and the Evolution of (Almost) Everything. New York: Norton, 2019.

Mann, Stephen. Systems of Creation: The Emergence of Life from Nonliving Matter. Accounts of Chemical Research. 45/12, 2012.

Meyer-Ortmanns, Hildegard and Stefan Thurner, eds. Principles of Evolution: From the Planck Epoch to Complex Multicellular Life. Berlin: Springer, 2011.

Pross, Addy. What is Life?: How Chemistry becomes Biology. New York: Oxford University Press, 2012.

Westall, Frances and Andre Brack. The Importance of Water for Life. Space Science Reviews. 214/2, 2018.

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1. Quantum Organics in the 21st Century

As science transitions to a planetary progeny, new phases of integral clarity are being achieved. In the early 1900s, this realm of subatomic substance and activity was dubbed “quantum,” from the Latin for “amount,” by Max Planck because he theorized that energy waves are composed of discrete material units. For over a century, physicists such as Einstein, Bohr, Schrodinger, Heisenberg, Bohm, Wheeler and many more sought to study, test, and make sense of this fundamental domain. Quantum “mechanics” went forth somewhat as a “methinks it is like” series of concepts and thought experiments such as entanglement, decoherence, double-slit tests, dead or alive cats, uncertainty, non-locality and so on. For example, I heard Abner Shimony speak in 1979 about superposition, and John Bell in 1990 ask what does it mean that some kind of quantum phase exists, from which we then arise from and wonder.

Around 2000, the project began to include an informational content and essence, along with algorithmic communication, cited more in An Information Computation Turn. In 2009 I heard two of its conceivers, Jeffrey Bub and Hans Halvorson, give a survey to date. With the advent of complex network systems science, since the 2010s a growing recognition of their similar presence in this deepest mode went forth. As a result the old quantum-classical divide began to dissolve, which Nobel physicist Gerard ‘t Hooft, philosopher Alisa Bokulich and others engage. A premier, comprehensive entry and accessible text is Beyond Weird (2018) by the British science writer Philip Ball, which was cited as the European Physics Book of the Year. For these reasons, as a fertile ecosmos comes into view, the phrase Quantum Organics is broached going forward.

This we seek to document a historic revision due to humankind, which has been called a “second quantum revolution.” As the citations convey, a common affinity to other scales of nature and society became evident. Emergent Quantum Mechanics (EmQM) conferences have realized that what lies beneath is not another material stage but a strongly implied independent, mathematical, generative source. Since the 2010s a robust recognition of multiplex, neural-like network systems in this deep domain also arose and took off. For one example, an international Network Science conference (NetSci 2014) has a “Quantum Network” symposia. And as our collaborative vista brings many pieces to fit together into place, might one imagine a Quantome?

2020: A second quantum revolution phrase has arisen because it is lately realized that this deepest, contextual realm seems to be actually suffused by the same network, self-organized, complexities as everywhere else. The advance was fostered by a global project to achieve superfast quantum computers, along with finding that neural network methods are applicable. Nonlinear phenomena such as self-organized criticalities and chimera states are also present. Another aspect is a notice of quantum-like effects in biological organisms, cognition and behavior. As a further result, the olden quantum-classical divide is being erased due to better understandings of each domain. An issue remains because the 20th century version of unintelligible opaqueness is still in place. But altogether within a nascent ecosmos genesis, it may be appropriate to propose a new “quantum organics” identity.

Asano, Masanari, et al. Quantum Adaptivity in Biology: From Genetics to Cognition. Springer, 2015.

Balatsky, Alexander, et al. Dynamic Quantum Matter. Annalen der Physik. 532/2, 2020.

Ball, Philip. Beyond Weird: Why Everything You Thought You Knew about Quantum Physics Is Different. London: Bodley Head, 2018.

Bastidas, Victor, et al. Chimera States in Quantum Mechanics. arXiv:1807.08056.

Berkelbach, Timothy and Michael Thoss. Dynamics of Open Quantum Systems. Journal of Chemical Physics. 152/020401, 2020.

Bianconi, Ginestra. Interdisciplinary and Physics Challenges of Network Theory. arXiv:1509.00345.

Burghardt, Irene and Andreas Buchleitner. Quantum Complex Systems. Annalen der Physik. 527/9-10, 2016.

Heyl, Markus. Dynamical Quantum Phase Transitions. Reports on Progress in Physics. 81/5, 2018.

Jaeger, Gregg, et al. Second Quantum Revolution. Philosophical Transactions of the Royal Society A. 375/20160397, 2016.

Lombardi, Olimpia, et al, eds. Quantum Chaos and Complexity. Entropy. Online July, 2018

‘t Hooft, Gerard. The Cellular Automaton Interpretation of Quantum Mechanics. arXiv:1405.1548.

Torlai, Giacomo, et al. Neural Network Quantum State Tomography. Nature Physics. May, 2018.

Walleczek, Jan, et al, eds. Special Issue: Emergent Quantum Mechanics – David Bohm Centennial. Entropy. 21/2, 2019.

View the 96 Bibliographic Entries

2. A Consilience of Biology and Physics: Active Matter

This section was added in 2013 to cover a growing flow of research papers across these sciences that are finding an integral affinity between them. By our worldwise compass, quantum, condensed matter, many-body, statistical mechanics, and other fields are becoming perceived to have quite lively inferences. At the same while, organic evolutionary systems via anatomic forms, physiologic metabolism, neural architecture and cognizance, dynamic ecosystems and human societies are found to exhibit physical principles. In origin of life studies and elsewhere, as an organic nature spreads ever deeper roots, so does material substance gain an endemic conducive fertility. For example, systems biophysicist Nigel Goldenfeld (search) has advised that biology will become physics in the 21st century and biology is the new condensed matter physics.

An aspect within this overdue reunion is known by an Active Matter phrase. It was first used by the Indian physicist Sriram Ramaswamy in 2010 to designate a novel form of self-propelled material motion. As the quote notes, the endeavor has since engaged many self-assembled and mobile phases. A “Soft Matter” version studies all manner structural properties of pliable biomolecular and cellular forms. A common implication seems to be an innate mathematical source that serves to structure and guide the gravid spontaneity of a procreative evolution and history.

Active matter is composed of large numbers of active "agents", each of which consumes energy in order to move or to exert forces. Such systems are intrinsically out of thermal equilibrium. Active matter systems break time reversal symmetry because energy is being continually dissipated by the individual constituents. Most examples of active matter are biological in origin and span the scales from bacteria and self-organising bio-polymers to schools of fish and flocks of birds. (Wikipedia)

2020: As 21st century system sciences due to a regnant worldwise cognizance form in our midst, largely unawares, the long separation of organic, evolving life and mind from an “inorganic” material ground are well on their way to a vital integrated reunivication. This holistic synthesis occurs as living systems gain deeper integrations with physical phases and in turn quantum and many-body statistical phenomena find their way into biological vitalities.

Azaele, Sandro, et al. Statistical Mechanics of Ecological Systems. arXiv:1506.01721.

Bialek, William. Perspectives on Theory at the Interface of Physics and Biology. arXiv:1512.08954.

Cartwright, Julyan, et al. DNA as Information: At the Crossroads between Biology, Mathematics, Physics and Chemistry. Philosophical Transactions of the Royal Society A. Vol.374/Iss.2063, 2016.

Cavagna, Andrea and Irene Giardina. Bird Flocks as Condensed Matter Systems. Annual Review of Condensed Matter Physics. Volume 5, 2014.

Crosato, Emanuele, at al. Thermodynamics of Emergent Structure in Active Matter. arXiv:1812.08527.

Fodor, Etienne and Cristina Marchetti. The Statistical Physics of Active Matter. arXiv:1708.08652.

Goldenfeld, Nigel and Carl Woese. Life is Physics: Evolution as a Collective Phenomenon Far from Equilibrium. Annual Review of Condensed Matter Physics. Volume 2, 2011.

Gompper, Gerhard, et al. The 2019 Motile Active Matter Roadmap. Journal of Physics: Condensed Matter. 32/29, 2020.

Katsnelson, Mikhail, et al. Towards Physical Principles of Biological Evolution. Physica Scripta. 93/4, 2018.

Lee, Chiu Fan and Jean David Wurtz. Novel Physics Arising From Phase Transitions in Biology. Journal of Physics D. 52/2, 2019.

McFadden, Johnjoe and Jim Al-Khalili. The Origins of Quantum Biology. Proceedings of the Royal Society A. Vol.474/Iss.2220, 2018.

Ramaswamy, Sriram. The Mechanics and Statistics of Active Matter. Annual Review of Condensed Matter Physics. 1/323, 2010.

View the 122 Bibliographic Entries

3. Earth Alive: A GaiaSphere Sustains Her/His Own Viability

Earth’s biosphere is now known to have regulated itself for some billion years in a homeostatic fashion so as to sustain conducive atmospheric and geochemical conditions for life’s survival and evolution. Since the 1970's, the British geochemist James Lovelock, with Lynn Margulis and colleagues, have provided theoretical and experimental support for living systems as a planetary phenomenon. Lovelock's country neighbor, the author William Golding, suggested the name of the earth goddess Gaia. The concept has received intense scrutiny, often rejection, over past decades but has become understood and accepted as an innovative, useful model.

The section also contains references for the vital field of Earth systems science and Earth’s formative course. It is given a distinct place in an ecosmology chapter so as to identify and appreciate most favored habitable bioworlds such as our own whereupon a sentient, intelligent species can begin to observe, record, self-select and continue forth. The title seeks to convey its biological, ecological and indeed an ovular, children-bearing essence.

2020: After some decades of critical doubt, worries and just unfamiliarty, a biospheric, life-sustaining, superorganic global envelope has become the basic guide for Earth systems science. This Gaian process is seen to influence and control Earth’s mineral surface, atmospheric compositions, and more so to maintain a favorable, billion year milieu for life’s evolutionary development to our retrospective sapiensphere observance.

Alvarez, Walter. A Big History of Our Planet and Ourselves. New York: Norton, 2016.

Arenes, Alexandra, et al. Giving Depth to the Surface: An Exercise in the Gaia-Graphy of Critical Zones. Anthropocene Review. Online June, 2018.

Arney, Giada, et al. The Pale Orange Dot: The Spectrum and Habitability of Hazy Archean Earth. Astrobiology. 16/11, 2016.

Hermida, Margarida. Life on Earth is an Individual. Theory in Biosciences. Online February, 2016.

Jabr, Ferris. The Earth is just as Alive as You Are. New York Times. April 21, 2019.

Kleidon, Axel. How does the Earth System Generate and Maintain Thermodynamic Disequilibrium. Philosophical Transactions of the Royal Society A. 370/1012, 2012.

Langmuir, Charles and Wally Broecker. The Story of Earth from the Big Bang to Humankind. Princeton: Princeton University Press, 2012.

Lenton, Timothy, et al. Selection for Gaia across Multiple Scales. Trends in Ecology and Evolution. Online July, 2018.

Nicholson, Arwen, et al. Alternative Mechanisms for Gaia. Journal of Theoretical Biology. Online August, 2018.

Ruse, Michael. The Gaia Hypothesis. Chicago: University of Chicago Press, 2013.

Steffen, Will, et al. The Emergence and Evolution of Earth System Science. Nature Reviews Earth & Environment. 1/1, 2020.

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5. Universal Evolution: A Celestial Expanse

This section was added in 2014 to gather viewpoints about a similar stochastic evolutionary process which seems be in occurrence even across vicarious cosmic environments. In regard, this celestial domain has been dubbed a Universal Darwinism, see John O. Campbell, Lee Smolin, Milan Cirkovic and other sources. And in a deep physical contrast, Wojciech Zurek (search here and arXiv) has advanced a Quantum Darwinism which has gained an ongoing interest.

This Western view is then complemented by a Russian school via publications in a substantial Evolution almanac from Volgograd, search Leonid Grinin, et al. But this more Eastern vista does not hold to a capricous contingency. Rather in a Cosmism (search) way, an organic reality is seen to seen as a teleological “Universal Evolutionism.” Life’s aware emergence springs from an independent, informative self-organization in effect before winnowing selection. This is a distinction and difference which quite aligns with a Natural Genesis.

2020: Into the 2010s, a wider notice of a general Darwinian process which forms many contingent candidates so that a winnowing post-selection might attain an optimum or good enough result has occurred. An evident presence is being found all the way from quantum phenomena to cosmic and multiversal domains, far beyond biological evolution. A new aspect is an entry of computational, algorithmic approaches to express and define the pervasive mathematical operation. While albeit harsh, capricious, and excessive, it appears to be the way of beingness and becomings.

In further regard, this “natural selection” writ large, as it dawns upon us, will be a key factor as we reach the Earthropic Principle section because the winnowing process may likewise hold for and apply to vicarious habitable planets in stellar incubators. Out of some quintillion estimated worlds, it is beginning to seem that our home bioplanet may very well be the fittest of them all.

Baladron, Carlos and Andrei Khrennikov. Outline of a Unified Darwinian Evolutionary Theory for Physical and Biological Systems. Progress in Biophysics and Molecular Biology. Online May, 2017.

Campbell, John O. and Michael Price. Universal Darwinism and the Origins of Order. Georgiev, Georgi, et al, eds. Evolution, Development and Complexity. International: Springer, 2019.

Cirkovic, Milan. The Astrobiological Landscape: Philosophical Foundations of the Study of Cosmic Life. Cambridge: Cambridge University Press, 2012.

Grinin, Leonid, et al. Evolutionary Megaparadigms. Grinin, Leonid et al, eds. Evolution: Cosmic, Biological, and Social. Volgograd: Uchitel Publishing, 2011.

Knott, Paul. Decoherence, Quantum Darwinism, and the Generic Emergence of Our Objective Classical Reality. arXiv:1811.09062.

Lewis, Samuel, et al. Darwin’s Aliens. International Journal of Astrobiology. Online November, 2017.

Newman, Stuart. Universal EvoDevo? Biological Theory. 13/67, 2018.

Yang, Xin-She.Nature-Inspired Optimization Algorithms. Amsterdam: Elsevier, 2014.

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B. Our Whole Scale EcosmoVerse Description Project

After theoretical Quantum Cosmology, here we present a survey of astrophysical vistas that have expanded from Galileo’s moon to an infinite multiUniVerse. Our “own” cosmos in its temporal course is graced by a trillion galaxies, each with billions of stars and a quintillion orbital worlds in and out of habitable zones. A good recent example is Finding Our Place in the Universe by Helene Courtois.

2020: Two decades in, an international collaborative astronomy by way of land-based and satellite telescopes, sophisticated instrumentation, analytic techniques, computational displays and more, has allowed we Earthlings to fill in and flesh out the temporal formation of a trillion galaxy, sextillion star spacescape. A prime aspect noted in Universal Evolution is a widest stochastic, contingent variety. We will enter its newly found occasion of myraid habitable planetary zones further on. Streaming 3D videos of intersecting galaxies and black holes, for example, can now inform and illustrate our awesome humankinder achievement, and future task of conceptual ecosmic self-description.

Berlinski, Vladimir and Marc Henneaux. The Cosmological Singularity. Cambridge: Cambridge University Press, 2017.

Courtois, Helene. Finding Our Place in the Universe. Cambridge: MIT Press, 2019.

Codis, Sandrine, et al. On the Connectivity of the Cosmic Web. arXiv:1803.11477.

Frebel, Anna. Searching for the Oldest Stars. Princeton: Princeton University Press, 2015.

Kobayashi, Chiaki, et al. The Origin of Elements from Carbon to Uranium. arXiv:2008.04660.

Libeskind, Noam and Brent Tully. Our Place in the Cosmos. Scientific American. July, 2016.

Perlov, Delia and Alex Vilenkin. Cosmology for the Curious. International: Springer, 2017.

Vazza, Franco. The Complexity and Information Content of Simulated Universes. arXiv:2007.05995.

Tyson, Neil de Grasse, et al. Welcome to the Universe. Princeton: Princeton University Press, 2016.

Vogelsberger, Mark, et al. Cosmological Simulations of Galaxy Formation. Nature Reviews Physics. 2/1, 2020.

View the 89 Bibliographic Entries

1. Quantum Cosmology Theoretic Unity

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.

View the 139 Bibliographic Entries

2. Systems Physics: Self-Organization

Many scientific fields are in the process of a major shift from reduction to emergence such as Systems Biology, Genetics, Neuroscience, and Chemistry, as this site reports. By finding and cataloging the particles and linear laws of cosmic and material realms, this phase has well plumbed materiality and spacetime. But a Google search for “Systems Physics” does not get any results. A curious inversion seems to occur whence this fundament atomic pursuit since Greece and Rome to Newton’s day may be the last to reconceive itself. A developmental self-organization from galaxies to genomes to Gaia does not appear in large colliders. Physicist advocates such as Philip Anderson, Brian Josephson, Robert Laughlin, Lee Smolin, Nigel Goldenfeld, William Bialek and many others are now trying to move beyond a benthic theory of everything to a recurrent vitality everywhere. A Systems Physics to reunite and reinvent quantum and cosmos from which life, intelligence and personhood in community are meant to emerge is an overdue imperative. Other sections herein such as Active Matter, Fractal Cosmology, Common Principles contain additional references.

2020: While systems biology and systems chemistry have become distinct research endeavors (see sections herein), this title phrase, which should be equally obvious, has not come into wider use (no hits on Google). The olden divide between life sciences and a mechanical physics is deeply rooted. This section went online in the mid 2000s for contributions that began to scope out the endemic presence of dynamically interconnected environs from universe to human. The current scientific revolution has now well advanced toward a natural unified, animate ecosmos, as Active Matter attests. Other sections such as A Survey of Common Principles contain more entries about complex network self-organizations everywhere.

Castellano, Claudino, et al. Statistical Physics of Social Dynamics. Reviews of Modern Physics. 81/2, 2009.

Drossel, Barbara. Strong Emergence in Condensed Matter Physics. arXiv:1909.01134.

Janson, Natalia. Non-Linear Dynamics of Biological Systems. Contemporary Physics. 53/2, 2012

Kibble, Tom and Ajit Srivastava. Condensed Matter Analogues of Cosmology. Journal of Physics: Condensed Matter. 25/400301, 2013.

Krioukov, Dmitri, et al. Network Cosmology. Nature Scientific Reports. 2/793, 2012.

Kwapien, Jaroslaw and Stanislaw Drozdz. Physical Approach to Complex Systems. Physics Reports. 515/3-4, 2012.

Perc, Matjaz. Beauty in Artistic Expressions through the Eyes of Networks and Physics. Journal of the Royal Society Interface. March 11, 2020.

Scott, Alwyn. The Nonlinear Universe. Berlin: Springer, 2007.

Tkacik, Gasper, et al. Thermodynamics for a Network of Neurons: Signatures of Criticality. arXiv:1407.5946.

Yeung, Chi Ho and David Saad. Networking – A Statistical Physics Perspective. Journal of Physics A. 46/10, 2013.

View the 78 Bibliographic Entries

3. Supramolecular Systems Chemistry

This is a 2007 section for the coalescing endeavor which is being dubbed “supramolecular systems chemistry,” aka “constitutional dynamic and adaptive chemistry.” These terms are from the 1997 Nobel chemist Jean-Marie Lehn and colleagues so to represent new appreciations of how nature’s universal self-organizing animations are equally in effect across complex bio/chemical materialities. As Chemical Gardens above, these informed forces are seen to foster emergent, nested, complexities. Another French Nobel scientist Christian de Duve advised that evolutionary matter seems to “pregnant with life.”

In regard another mini-revolution is recorded whence physical substance is being found to possess an essential spontaneity to evolve and develop into organic precursors. We cite, for example, the work of the University of Glasgow chemist Leroy Cronin and group to seriously quantify life’s deep, tap roots into a fertile cosmos. As the references note, the field has interdisciplinary reaches into life’s origins, artificial chemistry, computational methods, reaction networks, autocatalytsis and astrochemistry.

2020: In our bidecadal span chemical research theory and test has found essential nature’s complex network self-organization to even be at generative effect in this deep substantial domain. Today via international conferences, journal publications and current applications, this cocreative activity serves to study and quantify nature’s organic materiality, along with novel compositions for a better, sustainable future.

Ashkenasy, Goren, et al. Systems Chemistry. Chemical Society Reviews. 46/2543, 2017.

Azevedo, Helena, et al. Complexity Emerges from Chemistry. Nature Chemistry. 12/9, 2020.

Banzhaf, Wolfgang and Lidia Yamamoto. Artificial Chemistries. Cambridge: MIT Press, 2015.

Doty, David and Shaopeng Zhu. Computational Complexity of Atomic Chemical Reaction Networks. arXiv:1702.05704.

Ghosh, Abhik and Paul Kiparsky. Grammar of the Elements. American Scientist. November-December, 2019.

Grzybowski, Bartosz, et al. From Dynamic Self-Assembly to Networked Chemical Systems. Chemical Society Reviews. 46/5647, 2017.

Lehn, Jean-Marie. Perspectives in Chemistry – Steps toward Complex Matter. Angewandte Chemie International Edition. 52/10, 2013.

McArdle, Sam, et al. Quantum Computational Chemistry. Review of Modern Physics. 92/015003, 2020.

Mikhailov, Alexander and Gerhard Ertl. Chemical Complexity. Switzerland: Springer Frontiers, 2017.

Ruiz-Mirazo, Kepa, et al. Prebiotic Systems Chemistry. Chemical Reviews. 114/1, 2014.

Showalter, Kenneth and Irving Epstein. From Chemical Systems to Systems Chemistry: Patterns in Space and Time. Chaos. 25/9, 2015.

Unsleber, Jan and Markus Reiher. The Exploration of Chemical Reaction Networks. Annual Review of Physical Chemistry. Volume 71, 2020.

View the 74 Bibliographic Entries

4. Geosphere, Hydrosphere, Atmosphere as Complex, Network Systems

This encompassing land, sea and sky Earthscape realm would not likely seem to be influenced by or express any self-organizing, fractal, network complexities, which was the case in 2000. But as these scientific fields grew in interdisciplinary veracity, endeavors in geophysics, atmospheric studies, soil science and more began to find that they indeed are equally at formative effect. (But as ultimately organic-genomic in naturomic effect, it would seem they must be in actual effect everywhere.) Into the 2010s, a broad array of local, bioregion, continental and global areas are seen as formed and guided by invariant, self-organized topologies. As the references cite, rivers, deltas, coastlines, mountain aretes, earthquakes, rainfalls, droughts and onto stormy weather patterns. See the Global Climate as a Complex Dynamical System section for more reports.

2020: A universally encoded pattern and process has even been found in effect across all manner of geologic landforms, oceanic seas and atmosphere phenomena. The benefit of these wiseworld mathematical findings would be better information and knowledge to understand, mitigate, and manage. Active examples are earthquake studies, forest fire control, drought prevention, and so on.

Bickford, Marion, ed. The Web of Geological Sciences. Geological Society of America: Boulder, CO, 2013.

Bonetti, Sara, et al. Channelization Cascade in Landscape Evolution. Proceedings of the National Academy of Sciences. 117/1375, 2020.

Fallah, Bijan, et al. Emergence of Global Scaling Behaviour in the Coupled Earth-Atmosphere Interaction. Nature Scientific Reports. 6/34005, 2016.

Ferreira, Douglas, et al. Long-range Correlation Studies in Deep Earthquakes Global Series. Physica A. Online August 27, 2020.

Hazen, Robert, at al. Mineral Evolution. American Mineralogist. 93/1693, 2008.

Hunt, Allan and Stefano Manzoni.Networks on Networks: The Physics of Geobiology and Geochemistry.< Online: Morgan & Claypool Publishers, 2015.

Phillips, Colin and Douglas Jerolmack. Self-Organization of River Channels. Science.> 352/694, 2016.

Rak, Rafal, et al. Universal Features of Mountain Ridge Networks on Earth. Journal of Complex Networks. May, 2019.

Tsonis, Anastasios and James Elsner, eds. Nonlinear Dynamics in Geosciences. Berlin: Springer, 2007.

View the 76 Bibliographic Entries

C. The Information Computation Turn

Into the 21st century, aided by computational advances, the concept of information as broadly conceived from algorithms to literate knowledge has become recognized as a prime independent quality along with and prior to matter and energy, space and time. As many references such as James Gleick's The Information (2011) attest, a deep textual dimension provides a missing, codifying element in support of an organic genesis uniVerse. In several ways, the long temporal passage of an ecosmic nature to human culture gains a vital informational-computational empowerment. From Gottfried Leibniz, Alan Turing to Stephen Wolfram and Gregory Chaitin to Gordana Dodig-Gordana, Luciano Floridi, Wolfgang Hofkircher, Sara Walker and many others, the general perception is a universe that seems to independently program and iteratively compute itself into personal, emergent cognizance. By some analogous genotype/phenotype, software,hardware facility, a double generative mathematical domain reappears in our late midst. Another aspect is a similar informational essence within quantum phenomena, which is covered in the next section.

2020: By this date, sanother feature being found by our composite global genius is a theoretical and evidential presence, in addition to space, time, matter and energy, of a maybe more fundamental, mathematic, generative domain. In regard, its intrinsic informative content would appear to program and prescribe the temporal development of an animate, informed, personified uniVerse. In accord with the large Ecosmomics chapter ahead, some 136 entries herein open windows upon a deeply textual source code which at once independently underlies an organic genesis while seeming to rise along with life’s exemplary evolution all the way to our sapient cocreative endowment.

Cuffaro, Michael and Samuel Fletcher. Physical Perspectives on Computation, Computational Perspectives on Physics. Cambridge: Cambridge University Press, 2018.

Davies, Paul. The Demon in the Machine: How Hidden Webs of Information are Solving the Mystery of Life. London: Allen Lane, 2019.

Dodig-Crnkovic, Gordana. Nature as a Network of Morphological Infocomputational Processes for Cognitive Agents. European Physical Journal Special Topics. 226/181, 2017.

Dyson, George. Turing’s Cathedral: The Origins of the Digital Universe. New York: Pantheon Books, 2012.

Ensslin, Torsten, et al. The Physics of Information. Annalen der Physik. 531/3, 2019.

Floridi, Luciano. The Logic of Information. Oxford: Oxford University Press, 2019.

Gleick, James. The Information: A History, A Theory, A Flood. New York: Pantheon, 2011.

Hidalgo, Cesar. Why Information Grows: The Evolution of Order, from Atoms to Economies. New York: Basic Books, 2015.

Horsman, Dominic, et al. The Natural Science of Computing. Communications of the ACM. August, 2017.

Ji, Sungchul. Waves as the Symmetry Principle Underlying Cosmic, Cell, and Human Languages. Information. February, 2017.

Mora, Thierry, et al. Special Issue on Information Processing in Living Systems. Journal of Statistical Physics. 162/5, 2017.

Walker, Sara Imari, et al, eds. From Matter to Life: Information and Causality. Cambridge: Cambridge University Press, 2017.

View the 137 Bibliographic Entries

1. A CoCreative Participatory UniVerse

This 2017 subsection grew out of the Quantum Cosmology and Information Computation sections as it became evident that along with Complex System features this foundational realm also has a distinct informational quality. While intimated in the 1980s and 1990s by the sage physicist John Archibald Wheeler, Rolf Landauer, David Deutsch, and others, initial 21st century perceptions were of two kinds. The 2000 work Quantum Computation and Quantum Information by Michael Nielsen and Isaac Chuang was mainly about mechanics, qubits, Shannon communications and so on. This school continues apace with volumes such as Quantum Computer Science by David Mermin (2007) and Quantum Information Theory by Mark Wilde (2nd ed. 2017) to advance this field.

But another turn sought deeper insights whence this basic feature is distinguished by a prescriptive essence. An initial entry may be the 2003 paper Characterizing Quantum Theory in Terms of Information-Theoretic Constraints by Rob Clifton, Jeffery Bub and Hans Halverson, along with by Gennaro Auletta’s 2005 Quantum Information. In 2010 Vlatko Vedral wrote Decoding Reality: The Universe as Quantum Information. Later works by Christopher Timpson (2013), Giulio Chiribella, Giacomo D’Ariano, again David Deutsch with Chiara Marletto, Andrei Khrennikov (Foundations of Physics) grew into an expansive model as cited herein.

This collection about nature’s communicative content which may pass from a programmable universe to our retrospective observation is an apropos place for J. A. Wheeler’s overall arc from Bit (originally Byte, a code-like basis) to It (sentient entities). His novel theory alluded to a quantum reality which requires some manner of self-aware “measurement, witness, recognition” so as to come into full manifestation. By 2017, this deep insidht has gained much acceptance (Edward Witten interview) for it melds an informational source with a central rode for emergent human beings. A further version is the Quantum Bayesian or QBism approach advanced by Christopher Fuchs and colleagues, search here and the arXiv preprint site, whence our cognitive inquiries proceed in clarity by way of iterative, more probable, estimations.

2020: A rising conceptual presence into the 2010s has been certian physical theories which require sentient, interactive human-like beings whom in turn can retrospectively observe, recognize and affirm the procreative, encoded universe they arose from. In its own terms, an original Bit source code needs to reach an It literacy so as to bring the whole temporal scenario into full regnant existence.

By virtue of this perceptive model, to follow its theme, we Earthlings have a central, special importance to the fate and future of an ecosmic genesis. That is to say since human beings can rightly be viewed as the risen ecosmos personified, our Earthomo lives can have a direct cocreative influence. This vista due much to the physicist John A. Wheeler is reviewed more in the main introduction above, along with a view of personal and universal self-realization by Freya Mathews, a feminist philosopher.

Aguirre, Anthony, et al, eds. It From Bit or Bit From It?: On Physics and Information. Berlin: Springer, 2015.

Benioff, Paul. Relation between Observers and Effects of Number Valuation in Science. arXiv:1804.04633.

D’Ariano, Giacomo, et al. Quantum Theory from First Principles: An Informational Approach. Cambridge: Cambridge University Press, 2017.

Eigen, Manfred. From Strange Simplicity to Complex Familiarity. New York: Oxford University Press, 2013.

Gould, Roy. Universe in Creation: A New Understanding of the Big Bang and the Emergence of Life. Cambridge: Harvard University Press, 2018.

Lombardi, Olimpia, et al, eds. What is Quantum Information? Cambridge: Cambridge University Press, 2017.

Mermin, David. Making Better Sense of Quantum Mechanics. Reports on Progress in Physics. 82/1, 2018.

Timpson, Christopher. Quantum Information Theory. Oxford: Clarendon, 2013.

Vedral, Vlatko. Decoding Reality: The Universe as Quantum Information. Oxford: Oxford University Press, 2010.

Von Baeyer, Hans. QBism: The Future of Quantum Physics. Cambridge: Harvard University Press, 2016.

View the 55 Bibliographic Entries

E. Non-Equilibrium Thermodynamics of Living Systems

The sterile, mechanical universe of later 19th century theories was conceived as a closed, isolated system tending to quiescent equilibrium. As predicted by the second law of thermodynamics, it must inexorably expire as available energy is spent doing work and converted to entropy. The “noonday brilliance” of the human moment is all for naught per Bertrand Russell in the early 20th century. But a major revision and expansion has been underway since the 1970s whereof life is conceived as an open system infused and organized by a sustaining flow of energy and information. The doom sentence has been repealed and superseded by far-from-equilibrium theories, due much to Nobel laureate Ilya Prigogine and colleagues. But in the 21st century the older and newer versions still coexist into our global collaborative revolution. Altogether these efforts serve to explain a vital "physical" source and animation for and impetus to biological and cultural evolution. All of which well bodes for a reunification of organic beings with a conducive cosmos.

2020: As some 100 diverse references cite, this scientific endeavor to learn all about nature’s energies which animate a genesis uniVerse, emergent life and human becomings, has moved far beyond a simple second entropic law to find many intrinsic non-equilibrium formative forces at work in every phase. There is work still to be done such as homing in on a phenomenal proof and how to better understand and align with their Earthly presence.

Branscomb, Elbert, et al. Escapement Mechanisms and the Conversion of Diswquilibria: The Engines of Creation. Physics Reports. Vol. 677, 2017.

Cartwright, Jon. Roll Over, Boltzman. Physics World. May, 2014.

Dewar, Roderick, et al, eds. Beyond the Second Law: Entropy Production and Non-equilibrium Systems. Berlin: Springer, 2013.

England, Jeremy. Dissipative Adaptation in Driven Self-Assembly. Nature Nanotechnology. 10/11, 2015.

Haddad, Wassim. A Dynamical Systems Theory of Thermodynamics. Princeton: Princeton University Press, 2019.

Jeffery, Kate, et al. On the Statistical Mechanics of Life: Schrodinger Revisited. Entropy. 21/12, 2019.

Kaneko, Kunihiko and Chikara Furesawa. Macroscopic Theory for Evolving Biological Systems Akin to Thermodynamics. Annual Review of Biophysics. 47/273, 2018.

Kleidon, Axel. Thermodynamic Foundations of the Earth System. Cambridge: Cambridge University Press, 2016.

Marletto, Chiara. Constructor Theory of Thermodynamics. arXiv:1608.02625.

Nigmatullin, Ramil and Mikhail Prokopenko. Thermodynamic Efficiency of Interactions in Self-Organizing Systems. arXiv:1912.08948.

Rajpurohit, Tanmay and Wassim Haddad. Stochastic Thermodynamics: A Dynamical Systems Approach. Entropy. Online December, 2017.

View the 103 Bibliographic Entries

1. Life's New Open Quantum Informatiive Resource Thermoversion

As I have noted on occasion, my 1960 degree is in engineering thermodynamics from Brooklyn Polytechnic Institute, now NYU Poly. Back then the field was mainly about the three laws for steam power plants. In 1987 I had lunch at a complexity conference with Ilya Prigogine, the 1970s Nobel founder of nonequilibrium thermodynamics. Since around 2010, aided by Internet worldwide collaborations, such studies of energy source, usage, dissipation, and entropies, widely conceived, began to merge with quantum mechanical physics by way of corresponding theoretical finesses. Into the late 2010s, these composite endeavors have spread and grown to an extent and depth that they merit their own subsection.

2020: This fledgling field is an intersect of thermodynamic theory, a work in conceptual progress, with quantum phenomena as it reconceives itself via complex dynamic systems, has led to a flurry of insightful syntheses.

Alicki, Robert and Ronnie Kosloff. Introduction to Quantum Thermodynamics: History and Prospects. arXiv:1801.08314.

Anders, Janet and Massimiliano Esposito. Focus on Quantum Thermodynamics. New Journal of Physics. 19/010201, 2017.

Faist, Philippe. Quantum Coarse Graining: An Information-Theoretic Approach to Thermodynamics. arXiv:1607.03104.

Gemmer, Jochen, et al. Quantum Thermodynamics. Berlin: Springer, 2012.

Vedral, Vlatko. Law and Disorder. New Scientist. April 7, 2018.

Wolchover, Natalie. The Quantum Thermodynamics Revolution. Quanta Magazine. Online May 2, 2017.

View the 26 Bibliographic Entries

2. Cosmopoiesis: An Autocatalytic, Bootstrap Self-Made UniVerse

This January 2018 section reports an increasing notice of how a natural universe to human evolutionary emergence seems to be facilitated by life’s autocreative biochemical self-initiation. As popularly known, a catalyst is a (bio)chemical agent which can effect a reaction without itself being changed in the process. An autocatalytic term has become a general identifier for this procedure, and has gained usage because something like this does seem to be going on. A pioneer theorist since the 1970s has been Stuart Kauffman (search) which he has articulated in books and collegial papers to this day. Lately the concept is advanced by biomathematicians such as Wim Hordijk and Michael Steel, along with Liane Gabora, Nathaniel Virgo, Guenther Witzany, Sara Walker, Leroy Cronin, Addy Pross, and others herein.

In November 2019, another phase or mode of a self-making natural genesis will be included here, namely “bootstrap universe” theories. With a once and future casting, the concept began with Geoffrey Chew in the 1960s, but while notable it was set aside. As entries here especially by Natalie Wolchover and others cite, a strong revival has occurred because a lively cosmos seems to actually be doing something like this. New contributions by Nima Arkani-Hamed, David Poland, Gui Pimental and others (cited below, and posted on the arXiv eprint site). If one queries “bootstrap” there it gets over 3,000 hits. The Simons Foundation perceptively funds such efforts and conference (Perimeter Institute). Indeed this ecosmic placement seems to be expecting us (as Freeman Dyson would say) because there is some necessary, vivifying act we all are to carry out.

2020: Another essential feature of a genesis ecosmos is an array of self-creative phenomena which activate and enliven its ongoing development. Living systems from their earliest rediments appear to pervasively initiate and catalyze themselves by innately responsive biochemicals and bioprocesses at every instance. That is to say, a wholly self-making, autopoietic, spontaneity by way of its own internal agencies becomes apparent.

A companion perception is the recent recovery of a 1960s physical bootstrap model mostly from Geoffrey Chew, as described by Natalie Wolchover. A significant implication may be that we regnant human beings, both personally and collectively, ought to be inspired and moved to take up a role and mission as Earthomo and Earthosmic catalystic cocreators.

Adamski, Paul, et al. From Self-Replication to Replicator Systems en Route to de Novo Life. Nature Reviews Chemistry. 4/8, 2020.

Bissette, Andrew and Stephen Fletcher. Mechanisms of Autocatalysis. Angewandte Chemie International Edition. 52/12800, 2013.

Blokhuis, Alex, et al. Universal Motifs and the Diversity of Autocatalytic Systems. Proceedings of the National Academy of Sciences. 41/25230, 2020.

Farnsworth, Keith, et al. Unifying Concepts of Biological Function from Molecules to Ecosystems. Oikos. 126/10, 2017.

Hordijk, Wim and Mike Steel. The Emergence of Autocatalytic Networks. Biosystems. 152/1, 2017.

Lancet, Doron. Systems Protobiology: Origin of Life by Mutually Catalytic Networks. Life. Online July, 2018.

Peng, Zhen, et al. An Ecological Framework for the Analysis of Prebiotic Chemical Reaction Networks. Journal of Theoretical Biology. Vol. 507, 2020.

Piotto, Stefano, et al. Plausible Emergence of Autocatalytic Cycles under Prebiotic Conditions. Life. Online April 4, 2019.

Wolchover, Natalie. Cosmic Triangles Open a Window to the Origin of Time. Quanta. October 29, 2019.

Witzany, Guenther. Crucial Steps to Life: From Chemical Reactions to Code Using Agents. BioSystems. Online December, 2015.

View the 54 Bibliographic Entries

F. Systems Cosmology: Fractal SpaceTimeMatter

2020: When this section was first posted in the early 2000s, only rare, spurious inklings of intrinsic celestial self-similarities and self-organizing topological dynamics could be found. Two decades later, a pervasive structuration and activity has been well quantified across galactic cluster, interstellar medium, stellar coronae and more onto elemental atomic and material phases. The once formless, sterile, forbidding void can presently evince still another robust instance of the one, same vivifying code basis as everywhere else.

Aschwanden, Markus. Self-Organized Criticality in Astrophysics: The Statistics of Nonlinear Processes in the Universe. Berlin: Springer, 2011.

Coutinho, Bruno, et al. The Network behind the Cosmic Web. arXiv:1604.03236.

Deppman, Airton, et al. Fractals, Nonextensive Statistics, and QCD. Physical Review D. 101/034019, 2020.

Doering, Andreas and Tim Palmer. New Geometric Concepts in the Foundations of Physics. Philosophical Transactions of the Royal Society A. 373/Issue 2047, 2015.

Ettori, Stefano, et al. From Universal Profiles to Universal Scaling Laws in X-ray Galaxy Clusters. arXiv:2010.04192.

Ferreira, Pedro, et al. Inflation in a Scale Invariant Universe. arXiv:1802.06069.

Gaite, Jose. Scale Symmetry in the Universe. Symmetry. 12/4, 2020.

Krioukov, Dmitri, et al. Network Cosmology. Nature Scientific Reports. 2/793, 2012.

Lapidus, Michel. An Overview of Complex Fractal Dimensions. arXiv:1803.10399.

Miniati, Francesco and Andrey Brersnyak. Self-Similar Energetics in Large Clusters of Galaxies. Nature. 523/59, 2016.

Watkins, Nicholas, et al. 25 Years of Self-Organized Criticality. Space Science Reviews. 198/1, 2016.

View the 119 Bibliographic Entries

G. Anthropic, Biotropic, Earthropic Principles

2020: Since the 1970s, a notice of curious phenomena and parameters with just the right, fine-tuned properties and values so that living systems can form and we human beings evolve continues in place. While at odds with the olden pointless accident view, their actual presence would much accord with a phenomenal natural genesis.

Adams, Fred C. The Degree of Fine-Tuning in Our Universe – and Others. arXiv:1902.03928.

Barrow, John, et al, eds. Fitness of the Cosmos for Life: Biochemistry and Fine-Tuning. Cambridge: Cambridge University Press, 2007.

Conway Morris, Simon. What is Written into Creation? Burrell, David, et al, eds. Creation and the God of Abraham. Cambridge: Cambridge University Press, 2010.

Drabrowski, Mariusz. Anthropic Selection of Physical Constants, Quantum Entanglement, and the Multiverse Falsifiability. arXiv:1910.09073.

Holder, Rodney and Simon Mitton, eds. Georges Lemaitre: Life, Science and Legacy. Berlin: Springer, 2013.

Lewis, Geraint and Luke Barnes. A Fortunate Universe: Life in a Finely Tuned Cosmos. Cambridge: Cambridge University Press, 2016.

Livio, Mario and Martin Rees. Fine-Tuning, Complexity, and Life in the Multiverse. arXiv:1801.06944.

Naumann, Thomas. Do We Live in the Best of All Worlds? The Fine-Tuning of the Constants of Nature. Universe. Online August, 2017.

Slijepcevic, Predrag. Natural Intelligence and Anthropic Reasoning. Biosemiotics. July, 2020.

View the 58 Bibliographic Entries

H. An Astrochemistry to Astrobiological Spontaneity

Into the 2000s and 2010s an exceptional Earthkinder has widely and deeply explored our celestial stellar, galactic and universal environs with regard to its material composition. Rather than a lumpen sterility, a flow of findings has increasingly revealed a natural propensity to form and complexify into an array of lively biochemical precursors. That is to say, a revolutionary organic procreative spontaneity has become its inherent essence. A novel ecosmos thus appears to be “pregnant with life” as the Nobel chemist Christian de Duve famously said.

The copious section includes proceedings for international conferences on this field of study, which has converged upon the term Astrobiology. As this work progressed, it rooted deeply into pre-biological phases which similarly exhibited a tendency to self-arrange into suitable formulations for life’s evolution to come. In regard the further field of Astrochemistry arose.

2020 Early quantified signs that dark, cold outer space can yet contain an array of precursor biochemicals came in the 1980s. Into the 21st century, by way of satellites, spectroscopy, 3D graphic analytics, computational advancesand more, many increasingly complex biomolecules suitable for a life’s further evolution were being found. By 2020, a fecund materiality seems to be “pregnant” with an emergent, quickening development, as Nobel chemist Christian De Duve famously remarked. Here is another way that an actual organic ecomos is newly known to be suffused with all manner of biological fertility.

Cataldo, Franco, et al. Petroleum, Coal and Other Organics in Space. arXiv:2005.01162.

Chela-Flores, Julian. From Systems Chemistry to Systems Astrobiology: Life in the Universe as an Emergent Phenomenon. International Journal of Astrobiology. Online July, 2012.

Cobb, Alyssa and Ralph Pudritz. Nature’s Starships: Observed Abundances and Relative Frequencies of Amino Acids in Meteorites. Astrophysical Journal. 783/2, 2014.

Domagal-Goldman, Shawn and Katherine Wright, eds.. The Astrobiology Primer 2.0. Astrobiology. 16/8, 2016.

Fortenberry, Ryan. Quantum Astrochemical Spectroscopy. International Journal of Quantum Chemistry. 117/2, 2017.

Kolb, Vera, ed. Handbook of Astrobiology. Boca Raton: CRC Press, 2019.

Meadows, Victoria, et al, eds. Planetary Astrobiology. Tempe: University of Arizona Press, 2020.

McGuire, Brett. 2018 Census of Interstellar, Circumstellar, Extragalactic, Protoplanetary Disk, and Exoplanetary Molecules. arXiv:1809.09132.

Puzzarini, Cristina. Astronomical Complex Organic Molecules. International Journal of Quantum Chemistry. 117/2, 2017.

Smith, Ian, et al, eds. Astrochemistry and Astrobiology. Berlin: Springer, 2013.

Van Dishoeck, Ewine. Astrochemistry: Overview and Challenges. arXiv:1710.05940.

View the 137 Bibliographic Entries

I. Prolific ExoWorlds, Habitable Zones, Solar Systems, Galactic Biosignature Census

As a starter, web reference sites can be viewed at NASA Kepler Satellite, Harvard-Smithsonian Center for Astrophysics, and many other Google sites, along with Exoplanet encyclopedias, some listed here, for a wealth of information. By virtue of space and Earth telescope searches, along with instrumental and computational analysis, into the 2010s a radically novel universe is being realized that appears to be filled with as many orbital planets as there are sunny stars. In regard, this fecund ecomos seems to have an innate propensity to form and evolve solar arrays and exoworlds of every possible variety. It is then often predicted that bio-friendly Earth analogs in stellar and galactic habitable zones will soon be found.

While this worldwide mission continues apace, since circa 2015 research interests have moved on to learning how to observe and quantify candidate metallicity, continental mantles, liquid and gaseous atmospheres, moons, host star systems (many binary), mobile rocky worlds, Super-Earths, mini-Neptunes, gas giants and so on. Multi-member global teams are in pursuit of lively “biosignatures” (search here and arXiv) via bio/chemical spectography. Astro2020, ALMA 2030, and other large projects intend to access degrees of relative habitability from microbial to complex life forms and onto technical civilizations. So one might even coin a phrase as A Cosmic Census for such heavenly neighborhoods.

2020: This large section with 170+ entries reports and documents a most significant ecosmological revolution of our Earthomo century. As hinted in the 1980s, first verified in 1995, today after an intense, multifaceted worldwide effort, it is robustly evident that planetary systems in solar and galactic habitable zones are a common, distinctive occurrence across a conducive ecosmos. A previously barren, hostilty is being newly filled with maybe some quintillion near and far objects of every possible variety.

Into the later 2010s, the collaborative astronomical community, aided new telescopes, instrumental techniques, computational analysis and more, are commencing on decadal projects to take a near and farther ecosmic census. An emphasis is tuned toward finding Earth-like analog worlds whence a key approach is to discern atmospheric “biosignatures” which could imply a favorable, lively environment. And how special are we cooperative seekers already to be able to embark on an outward mission of spatial and temporal futurity.

Aschwanden, Markus and Felix Scholkmann. Exoplanet Predictions Based on Harmonic Orbit. arXiv:1705.07138.

Behroozi, Peter and Molly Peeples. On the History and Future of Cosmic Planet Formation. arXiv:1508.01202.

Borucki, William. KEPLER Mission: Development and Overview. Reports on Progress in Physics. 79/3, 2016.

Boss, Alan. Universal Life. New York: Oxford University Press, 2019.

Gargaud, Muriel, et al. Habitability in the Universe from the Early Earth to Exoplanets. Origins of Life and Evolution of Biospheres. 46/4, 2016.

Gilbert, Gregory and Daniel Fabrycky. An Information Theoretic Framework for Classifying Exoplanetary System Architectures. arXiv:2003.11098.

Kaltenegger, Lisa. How to Characterize Habitable Worlds and Signs of Life. Annual Review of Astronomy and Astrophysics. 55/433, 2017.

Perryman, Michael. The Exoplanet Handbook. Cambridge: Cambridge University Press, 2018.

Tremaine, Scott. The Statistical Mechanics of Planet Orbits. arXiv:1504.01160.

Walker, Sara, et al. Exoplanet Biosignatures: Future Directions. arXiv:1705.08071.

View the 189 Bibliographic Entries

1. Novel ExoUniverse Studies

While inklings of other cosmoses were broached through history (Siegfried), actual theoretical studies have only been possible into the 2010s by way of cumulative global postings. For a contrast, I heard Andrei Linde present his fractal multiverse theory in 1983 by way of overhead slides, in 2015 Fred Adams could show streaming videos of galactic evolution. Recent papers by Adams and colleagues, Sandora McCullen, and others can consider an entire unitary cosmos to see how varying physical parameters and chemical elements might effect their relative lifetime and habitability. And ever again, how fantastic is it that we sentient beings on a tiny but special bioplanet are altogether able to contemplate and quantify on a scale of whole cosmoses?

2020: In 1983 I attended Andrei Linde’s first US public lecture at Harvard where he spoke of bubbling fractal universes. But as the 21st century began, cosmic multitudes beyond our own remained a theoretical conjecture. Into the 2010s, due to Fred Adams, McCullen Sandora and other seekers, deeper insights along with detectable inklings now indicate a vast array of vicarious universes. Several entries consider whole cosmoses with regard to variable parameters and elemental makeup. As a result this infinity (maybe 10500) are thought to span wide contingent ranges to an extent that again some selective process may be going on. Since we Earthlings are here due to a rarest cocatenation, our home spacescape must favor anthropic qualities. But how fantastic is it that in a few centuries a sentient worldly species on a tiny orb some 10-33 orders smaller can yet explore and achieve such vast knowledge.

Adams, Fred and Evan Grohs. Stellar Helium Burning in Other Universes arXiv:1608.04690.

Bouhmadi-Lopez, Mariam, et al. The Interacting Multiverse and its Effect on the Cosmic Microwave Background. arXiv:1809.09133.

Dai, Liang, et al. On Separate Universes. arXiv:1504.00351.

Gould, Elizabeth and Niayesh Afshordi. Does History Repeat Itself? Periodic Time Cosmology. arXiv:1903.09694.

Grohs, Evan, et al. Universes without the Weak Force. arXiv:1801.06081.

Kartvelishvili, Guram, et al. The Self-Organized Critical Multiverse. arXiv:2003.12594.

Linde, Andrei. A Brief History of the Multiverse. arXiv:1512.01203.

Rahvar, Sohrab. Cosmic Initial Conditions for a Habitable Universe. Monthly Notices of the Royal Astronomical Society. 470/3, 2017.

Rubenstein, Mary-Jane. Worlds Without End. New York: Columbia University Press, 2014.

Sandora, McCullen. Multiverse Predictions for Habitability. arXiv:1903.06283.

Siegfried, Tom. The Number of the Heavens, Cambridge: Harvard University Press, 2019.

Wilczek, Frank. Multiversality. Classical and Quantum Gravity. 30/193001, 2013.

View the 60 Bibliographic Entries

J. Super Earth Nova: Our Especial Home be Could the Fittest, Smartest, Bioworld Candidate

We have reached an especial Natural Genesis section which can report and documentan increasing apparent but unknown 21st century radical realization. It has long been thought that due to the vast multitudes of galaxies, stars and now orbital planets ought to contain myriad life-bearing worlds. But as Earthumanity learns on her/his own, by 2022 it is found that a biosphere to noosphere evolution process need pass through many check points (see below) to reach this moment. In novel regard, our home Earth might well be the fittest, optimum candidate.

For a title citation, we propose to expand “Anthropic principle” about cosmic parameters that have precise values so to allow life and people to exist (Chap. III. G). An “Earthropic principle” could denote the unexpected discovery that amongst an infinity of stochastic bioworlds our special planet merits a rarest temporal and spatial significance. We continue on with some October 2022 musings (cutting it much to close).

Super Earth Nova Some 13.8 billion years on, our collective, aware observance and accumulated knowledge repository, so it may seem, could be what life’s evolutionary developmental gestation in a solar incubator needs to retrospectfully affirm both our “geonate” success, and possibly the whole ecosmic procreation. A vital point may then be that an informed realization requires our own (autocatalytic) personal and planetary initiative. We broach such glimpses so to wonder what awesome vistas might be in our midst so to reveal a peaceable future.

Here is broad sample of recent findings across the 140 section entries. It is followed by a long tabulation of just how problematic it has been

Ambrifi, Alessandro, et al. The Impact of AGN Outflows on the Surface Habitability of Terrestrial Planets in the Milky Way. arXiv:2203.00929.
Anand, Rajagopal. Orbital Properties and Implications for the Initiation of Plate Tectonics and Planetary Habitability. arXiv:2202.10719.
Ballmer, Maxim and Lena Noack. The Diversity of Exoplanets: From Interior Dynamics to Surface Expressions. arXiv:2108.08385.
Canup, Robin, et al. Origin of the Moon. arXiv:2103.02015.
Chopra, Aditya and Charles Lineweaver. The Case for a Gaian Bottleneck: The Biology of Habitability. International Journal of Astrobiology. 16/1, 2016.

Erdmann, Weronika, et al. How the Geomagnetic Field Influences Life on Earth. Origins of Life and Evolution of Biospheres. 51/231, 2021.
Foley, Bradford and Peter Driscoli. Whole Planet Coupling Between Climate, Mantle, and Core. arXiv: 1711.06801.
Frank, Adam. Light of the Stars: Alien Worlds and the Fate of the Earth. New York: Norton, 2019.
Hall, Shannon. Summer Solstice Mystery: Does the Earth’s Tilt Hold the Secret to Life? New York Times. June 21, 2018.
Haqq-Misra, Jacob. Does the Evolution of Complex Life Depend on the Stellar Spectral Energy Distribution? arXiv:1905.07343.

Horner, Jonathan, et al. The Influence of Jupiter, Mars and Venus on Earth’s Orbital Evolution. arXiv:1708.03448.
Kopparapu,, Ravi, et al. Characterizing Exoplanet Habitability. Meadows, Victoria, et al, eds. Planetary Astrobiology. Tempe: University of Arizona Press, 2020.
Lingam, Manasvi. Implications of Abiotic Oxygen Buildup for Earth-like Complex Life. arXiv:2002.03248.
Martin, Rebecca and Mario Livio. Asteroids and Life: How Special is the Solar System?. arXiv:2202.01352.
McIntyre, Sarah, et al. Planetary Magnetism as a Parameter in Exoplanet Habitability. arXiv:1903.03123.
O'Callaghan, Jonathan. A Solution to the Faint-Sun Paradox Reveals a Narrow Window for Life. Quanta Magazine. January 27, 2022.

Olson, Stephanie, et al. The Effect of Ocean Salinity on Climate and its Implications for Earth’s Habitability. arXiv:2205.06785.
Provenzale, Murante, et al. Climate Bistability of Earth-like Planets. arXiv:1912.05392.
Raymond, Sean, et al. Solar System Formation in the Context of Extrasolar Planets. Meadows, Victoria, et al, eds. Planetary Astrobiology. Tempe: University of Arizona Press, 2020.
Schwieterman, Edward, et al. A Limited Habitable Zone for Complex Life. arXiv:1902.04720.
Secco, Luigi, et al. Habitability of Local, Galactic and Cosmological Scales. arXiv:1912:01569.

Smith, Howard A. The End of Copernican Mediocrity. Zoe Imfeld and Andreas Losch, eds. Our Common Cosmos. London: Bloomsbury, 2018.
Synder-Beattie, Andrew, et al. The Timing of Evolutionary Transitions Suggests Intelligent Life is Rare. Astrobiology. November, 2020.
Wade, Jon, et al. Temporal Variation of Planetary Iron as a Driver of Evolution. Proceedings of the National Academy of Sciences. 118/51, 2021.
Way, M. J.. et al. Large-scale Volcanism and the Heat Death of Terrestrial Worlds. arXiv:2204.12475.
Webb, Stephen. If the Universe is Teeming with Aliens-- Where is Everybody? New York: Springer, 2015.

2020: With regard to this incredible significance, we propose an EarthMost identity so to properly name and represent our possibly fittest, optimum home. As a Pedia progeny now may embark on her/his open frontier of evolitionary continuance, we are aware of how rudimentary our current understandings must be. But in this geonatal moment, when a decisive self-selection between end or begin, kinder or cinder, must be made, this august finding could bring a vital incentive. For an example so far, we suggest works by Marina Alberti and David Wallace-Wells.

Benign G-Type Star Our sun has been on relatively good behavior for billions of years. While M red dwarfs make up some 80% of galactic stars, this preferred solar type and temperature range is more conducive for life and evolution.

Multiple Suns are Common A majority of stellar objects are found to occur in vicarious double pairings or triple combinations. Binary star regimes in constant motion are considered to be hostile, highly variable environs.

Stellar Clusters in Galaxies Another usual condition is a tendency for stars to cluster together in fluid galactic groupings, which makes suns with orbital planets harder to form and maintain. Our star is not in a crowded area.

Stable Solar System Our own warm sun with an array of eight distinct worlds has experienced a rare long-term stability. A ninth outer planet or more is seen as disruptive. Most exosolar arrays found so far exhibit all manner of chaotic instabilities.

Unique Orbital Geometries For another anomaly, our familiar orrery of worlds all lie in the same plane, with mostly well spaced, circular orbits. A Bohr atom type swarm of planets every which way, often close in, is more prevalent.

Solar Habitable Zone Precious Earth resides in a relatively benign middle location from the sun between fried too near and frozen far out. So situated, its daily rotation and 365 day annual orbit are very conducive.

Galactic Habitable Zone The solar system is located half way from a prohibitive center and too far outer bands. By virtue, beneficial metallicities can occur in the sun and for planetary accretions.

Jupiter’s Journeys This orderly milieu is due to past movements of the gas giant Jupiter in toward the sun and back again. This is known as a “grand tack,” which served to remove a usual inner crush of rocky worlds, leaving only Mercury.

Rare Ratio of Land and Water Among thousands of exoworlds found so far, Earth has a unique 30 – 70 % division of dry land and ocean over a long time. A more usual state, e.g. Mars and Venus, and through the galaxy, is a default to all arid, wet/icy, or gaseous.

Plate Tectonics Still another rarity is the past movement and contact of continental land masses over many millions of years. Their geological and climatic dynamics are seen to foster evolutionary development, which a stationary mantle would not do.

A Timely Oxygenated Atmosphere Earth life’s embryonic biosphere was able to achieve at an early age (Gaian bottleneck) a stable optimum of a 21% oxygen and 78% nitrogen balance. Below 15% or above 25% oxygen would starve or burn environments and organisms.

Asteroid Impact Rates By many paleo-studies, it has been found that Earth sustained a tolerable degree of asteroid hits, while the more usual rain of many more collisions which would be catastrophic to life and intelligence able to learn all this.

An Ideal Moon However it happened, Earth has had a largish moon in just the right place for a long duration. Its presence then causes moderate tidal flows and basins to foster stromatolites and cyanobacteria at life’s origins, go onto mediate weather, light up a dark night for hominins, and more favors.

A Good Axial Tilt for Seasons Earth’s polar axis goes through a 23.5 degree swing each year, aka obliquity, which causes vital seasonal variations. While a 10 to 50 degree range may harbor life, a spring, summer, autumn, winter cycle seems well suited.

A Geomagnetic Field 2021 findings imply that a relatively steady, stable strength is a vital necessity from life’s origin and throughout its developmental emergence.

Arboreal Tree Height As evident on Earth, life’s evolution was fostered by the right amount of ground water so that fertile forests could grow to an optimal size.

Planetary Magnetism Earth has maintained liquid surface water and an airy atmosphere over eons aided by a strong magnetic dipole moment. Other planets such as Venus and Mars do not have this vital feature.

Stellar Spectral Energy Radiance As a sun shines, it must do so at an appropriate rate over a long time span so that life on a habitable, orbital world can evolve from simple to complex entities like us.

Active Galactic Nuclei Their energetic emission in the Milky Way is another factor which can influence living, evolutionary systems

Volcanic Activity A vicarious degree of eruptions from molten global interiors can life’s chances to appear, survive and evolve. (May 2022)

Ocean Salinity It appears that the salt levels of watery expanses are beneficial, while higher, lower or changing amounts can inhibit. (May 2022)

We post next a sample of salient citations in support of these auspicious qualities. Please browse Astrobiology, Exoearths, Green Galaxy, and throughout for more reports.

2020 References:

Batygin, Konstantin and Greg Laughlin. Jupiter’s Decisive Role in the Inner Solar System’s Early Evolution. Proceedings of the National Academy of Sciences. 112/4214, 2015.

Canales, Manuel, et al. One Strange Rock. National Geographic. March, 2017.

Chopra, Aditya and Charles Lineweaver. The Case for a Gaian Bottleneck: The Biology of Habitability. International Journal of Astrobiology. 16/1, 2016.

Cirkovic, Milan. The Great Silence: Science and Philosophy of Fermi’s Paradox. Oxford: Oxford University Press, 2018.

Frank, Adam, et al. Earth as a Hybrid Planet: The Anthropocene in an Evolutionary Astrobiological Context. Anthropocene. Online August, 2017.

Gribbin, John. Alone in the Milky Way. Scientific American. September, 2018.

Lingam, Manasvi and Abraham Loeb. Physical Constraints for the Evolution of Life on Exoplanets. arXiv:1810:02007.

Morbidelli, Alessandro, et al. Topical Collection on the Delivery of Water to Proto-Planets, Planets and Satellites. Space Science Reviews. 214/7, 2018.

Prantzos, Nikos. A Probabilistic Analysis of the Fermi Paradox in Terms of the Drake Formula. arXiv:2003.04802.

Raymond, Sean, et al. Solar System Formation in the Context of Extrasolar Planets. Meadows, Victoria, et al, eds. Planetary Astrobiology. Tempe: University of Arizona Press, 2020.

Secco, Luigi, et al. Habitability of Local, Galactic and Cosmological Scales. arXiv:1912:01569.

Smith, Howard A. The End of Copernican Mediocrity: Zoe Imfeld and Andreas Losch, eds. Our Common Cosmos. London: Bloomsbury, 2018.

Waltham, David. Lucky Planet: Why Earth is Exceptional. New York: Basic Books, 2014.

Webb, Stephen. If the Universe is Teeming with Aliens-- Where is Everybody? New York: Springer, 2015.

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