
III. Ecosmos: A Revolutionary Organic Habitable UniVerseE. A Thermodynamics of Life Grossing, Gerhard. Time’s Arrow: Irreversibility from Quantum Systems to Biological Evolution. Cybernetics and Systems. 32/34, 2001. An introduction to a special issue whose papers variously affirm a stratified developmental ascent toward conscious complexity. Haddad, Wassim. A Dynamical Systems Theory of Thermodynamics. Princeton: Princeton University Press, 2019. The Georgia Tech engineering professor (search here and his website) continues into the 21st century to advance the field of scientific articulations for nature’s generative energies and forces. This book merges thermodynamics and dynamical systems theory into a single compendium, with the latter providing an ideal language for the former, so to develop a new dynamical thermodynamics. This combined format expresses the key aspects and laws of thermodynamics so to provide a mathematical basis for systems out of equilibrium. Topics include nonequilibrium thermodynamics, massaction kinetics and chemical reactions, finitetime thermodynamics, critical phenomena with phase transitions, information theory, along with stochastic thermodynamics. In this way the book joins thermodynamic irreversibility, the second law, and the arrow of time to unify discreteness and continuity, indeterminism and determinism, quantum mechanics and general relativity. Haddad, Wassim. A Unification between Dynamical System Theory and Thermodynamics Involving an Energy, Mass, and Entropy State Space Formalism. Entropy. Online May, 2013. The Georgia Institute of Technology professor of aerospace engineering and textbook author provides an innovative synthesis of these earlier and later, separate but similar, scientific interpretations. One of his courses is “Dissipative Dynamical Systems and System Thermodynamics.” In regard, humankind’s composite inquiry, its collaborative retrospect, is surely trying to describe one whole natural genesis universe through all these versions and vernaculars.
Haken, Hermann and Juval Portugali. Information and Selforganization: A Unifying Approach and Applications. Entropy. 18/6, 2016. The octogenarian University of Stuttgart physicist and 1980s founder of synergetics theory, and the Tel Aviv University systems geographer (search each) provide a tutorial upon nature’s nonlinear complexities. The authors are editors for a special collection about the title phrase, see the second quote. One may distill a common, implied theme from the technical essay, as current works evince, of an independent, universally applicable, mathematical source, which is then exemplified in kind at each stage and instance. Another typical paper in this online topic is Entropy and the SelfOrganization of Information and Value by Rainer Feistel and Werner Ebeling. Selforganization is a process by which the interaction between the parts of a complex system gives rise to the spontaneous emergence of patterns, structures or functions. In this interaction the system elements exchange matter, energy and information. We focus our attention on the relations between selforganization and information in general and the way they are linked to cognitive processes in particular. We do so from the analytical and mathematical perspective of the “second foundation of synergetics” and its “synergetic computer” and with reference to several forms of information: Shannon’s information that deals with the quantity of a message irrespective of its meaning, semantic and pragmatic forms of information that deal with the meaning conveyed by messages and information adaptation that refers to the interplay between Shannon’s information and semantic or pragmatic information. We first elucidate the relations between selforganization and information theoretically and mathematically and then by means of specific case studies. (Abstract)
Haw, Mark.
The Industry of Life.
Physics World.
November,
2007.
On the occasion of the 100 year anniversary of the death of William Thomson, aka Lord Kelvin, a retrospective history of thermodynamic theories of energy transmission and use which he played a major role in. But as this first phase of the three laws is complete, the subject has now moved to a nonequilibrium expression of living systems as a “theory of what everything does.” Hernando, Alberto and Angel Plastino. The Thermodynamics of Urban Population Flows. Physical Review E. 86/066105, 2012. As a natural genesis from universe to human becomes appreciated as a single, invariantly recurrent, procreative process, Universite Paul Sabitier, Toulouse, and National University La Plata, Argentina, physicists proceed to quantify from cosmos to cities a selfsimilar, iterative structure and dynamics as every other scale in between. In regard, by analogy, a “social thermodynamics” is then broached. See also in arXiv their paper “SpaceTime Correlations in Urban Population Flows.” The application of mathematical models to social sciences has a long and distinguished history. One may speak of empirical data from scientific collaboration networks, cites of physics journals, the Internet traffic, Linux packages links, popularity of chess openings, as well as electoral results, urban agglomerations and firm sizes all over the world. A specially relevant issue is that of universality classes defined by to the socalled Zipf’s law ZL in the cumulative distribution or rank size distributions. The class emerges from a condition of dynamic equilibrium. ZL also applies for processes involving either selfsimilarity or fractal hierarchy, all of them mere examples amongst very general stochastic ones. In the present vein, still another kind of idiosyncratic distribution is often reported: the lognormal one, that has been observed in biology (length and sizes of living tissue), finance, and firm sizes. Together with geometric Brownian motion, there is a variety of models arising in different fields that yield Zipf’s law and other power laws on a casebycase basis, as preferential attachment and competitive cluster growth in complex networks, used to explain many of the scalefree properties of social networks. Of course, the renormalization group is intimately related to scale invariance and associated techniques have been fruitfully exploited in these Matters. We will here describe the manner in which the methods of that paper can be generalized to firstprinciples theoretical framework describing population flows in terms of thermodynamic concepts. (0661051) Hu, BeiLok. Emergence, Gravity and Thermodynamics. arXiv:1204.1077. This is a full posting of a presentation by the University of Maryland and Hong Kong University physicist at the 2011 Heinz von Foerster Centenary International Conference on SelfOrganization and Emergence in Vienna (Google). We cite this work as another example of joining these title aspects within a 2010s quantum revolution, by our composite humankind, which seems on its own way to finally sorting out, clarifying, unifying a viable scenario of a selfdiscovering and selfcreating genesis. Emergence: After describing three different senses of emergence, I point out that effective field theory (EFT) or renormalization group (RG) is a suitable, maybe even necessary, but not sufficient set of conceptual means for describing emergence. EFT or RG [A1] may suggest how different physics manifest at different scales, but one also needs to identify the mechanisms or processes whereby different levels of structures and the laws governing them, including the symmetry principles, emerge. That depends on deeper interplay of collectivity, complexity, stochasticity and selforganization. Emergent Gravity: There are at least two intimately related veins in viewing gravity as emergent: a) General Relativity as Hydrodynamics, b) Gravity as Thermodynamics , where such a view is often shaped by considering the effects of an event horizon on the quantum fluctuations of a field, which underlies what is known today as the holography principle. Ito, Sosuke. Unified Framework for the Second Law of Thermodynamics and Information Thermodynamics based on Information Geometry. arXiv:1810.09545. A Hokkaido University, Research Center of Mathematics for Social Creativity continues his project with colleagues to advance a synthesis of dynamic energies and an operational, prescriptive content. See also Stochastic Thermodynamic Interpretation of Information Geometry by SI at 1712.04311 (second abstract). Information geometry, which is a differential geometric method of information theory, gives a natural definition of informational quantity from the projection theorem. We report that the second law of thermodynamics can be obtained from this projection onto the manifold of reversible dynamics. We also show that the recent result in stochastic thermodynamics with information theory, called as the second law of information thermodynamics. The hierarchy of these second laws can be discussed in terms of inclusion property of manifolds. (1810.09545 Abstract) IyerBiswas, Srividya, et al. Universality in Stochastic Exponential Growth. arXiv:1407.2947. We note this entry by University of Chicago and LBNL theorists including Gavin Crooks to report upon mid 2010s thermodynamic frontiers, broadly conceived, along with an increased notice of universally recurrent autocatalysis. Recent imaging data for single bacterial cells reveal that their mean sizes grow exponentially in time and that their size distributions collapse to a single curve when rescaled by their means. An analogous result holds for the divisiontime distributions. Our model, the stochastic Hinshelwood cycle (SHC), is an autocatalytic reaction cycle in which each molecular species catalyzes the production of the next. By finding exact analytical solutions to the SHC and the corresponding first passage time problem, we uncover universal signatures of fluctuations in exponential growth and division. We thus expect similar scalings to be discovered in stochastic processes resulting in exponential growth that appear in diverse contexts such as cosmology, finance, technology, and population growth. (Abstract excerpt)
Jeffery, Kate, et al.
On the Statistical Mechanics of Life: Schrodinger Revisited.
Entropy.
21/12,
2019.
At the verge of 2020, senior scientists Kate Jeffery, a University College London psychologist, Robert Pollack, a Columbia University biologist, and Carlo Rovelli, a University of Toulon polymath physicist proceed to revision cosmic, Earthly and human evolution as a single progression that arises from intrinsic energies and structures. Some 75 years after Erwin S. mused that the emergence of living beings must be rooted in and allowed by physical nature, his prescience can now be quantified and verified. To wit, novel insights about thermodynamic forces, (as herein reported), can indeed be seen to engender animate, evolving, recurrent, biospheric systems. One might even imagine we add, a “statistical organics” going forward also for quantum phenomena. We study the statistical underpinnings of life and its increase in order and complexity over evolutionary time. We question some common assumptions about the thermodynamics of life. We recall that contrary to widespread belief, even in a closed system entropy growth can accompany an increase in macroscopic order. We view metabolism in living things as microscopic variables driven by the second law of thermodynamics, while viewing the macroscopic variables of structure, complexity and homeostasis as entropically favored because they open channels for entropy to grow via metabolism. This perspective reverses the conventional relation between structure and metabolism by emphasizing the role of structure for metabolism rather than the converse. Jizba, Petr and Toshihico Arimitsu. The World According to Renyi: Thermodynamics of Multifractal Systems. Annals of Physics. 312/1, 2004. An example of the current shift in quantum and nonequilibrium statistical physics to include informational and dynamic system properties. Multifractals apply everywhere from cosmic strings to DNA sequences and financial markets. Jorgensen, Sven, ed. Thermodynamics and Ecological Modelling. Boca Raton, FL: Lewis Publishers, 2000. A consideration of a proposed “fourth law of thermodynamics” that a growing number of investigators are trying to define in order to quantify the evident rise in animate complexity in cosmic and earthly nature.
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