Charles Sanders Peirce’s Continuum

Charles Sanders Peirce’s Continuum

Key Terms

  • Charles Sanders Peirce
  • Continumm
  • Continuity
  • Continua
  • Cantor’s Continua
  • Triadic Logic
  • Trivalent Logic
  • Three Valued Logic
  • Multi Valued Logic
  • Modality
  • Bivalent Logic
  • Cosmology
  • Infinite
  • Infinitesimal
  • Perception
  • Potentiality
  • Principle of Continuity
  • Realism
  • Synechism
  • Topology
  • Principle of Excluded Middle
  • Nested Continua Model

Continuity, Continuum, and Continua

  • What is Continuity, Continuum and Continua?
  • History of Continuum and Continua
  • Varieties of Continuum
  • Peirce’s Continuum
  • Continuum East and west
  • Peirce’s Nested Continua
  • Continuous and Discrete
  • Parts and No Parts (Whole)
  • Category Theory
  • Set Theory
  • Peirce’s Theory of Collections
  • Peirce’s Diagrams and Existential Graphs
  • Indivisibility
  • Number Theory and Mathematical Continuum
  • Topical/Topological Continuum
  • Cantor / Dedekind Continuum
  • Intuitive Continuum
  • Primordial Continuum
  • Large Set Theoretic Continuum
  • Category Theoretic Continuum
  • Sheaf Continuum
  • Euclidean Geometry
  • Non Euclidean Geometry
  • Archimedean Geometry
  • Non Archimedean Geometry
  • Complex Numbers and Fractals
  • Non Archimedean Systems
  • Nonstandard (Robinsonian) Continuum
  • Nilpotent Infinitesimalist Continuum
  • Point Free Continuum
  • Mereology
  • Mereotopology

History of Continua

Source: The History of Continua: Philosophical and Mathematical Perspectives

Mathematical and philosophical thought about continuity has changed considerably over the ages. Aristotle insisted that continuous substances are not composed of points, and that they can only be divided into parts potentially; a continuum is a unified whole. The most dominant account today, traced to Cantor and Dedekind, is in stark contrast with this, taking a continuum to be composed of infinitely many points. The opening chapters cover the ancient and medieval worlds: the pre-Socratics, Plato, Aristotle, Alexander, and a recently discovered manuscript by Bradwardine. In the early modern period, mathematicians developed the calculus the rise of infinitesimal techniques, thus transforming the notion of continuity. The main figures treated here include Galileo, Cavalieri, Leibniz, and Kant. In the early party of the nineteenth century, Bolzano was one of the first important mathematicians and philosophers to insist that continua are composed of points, and he made a heroic attempt to come to grips with the underlying issues concerning the infinite. The two figures most responsible for the contemporary hegemony concerning continuity are Cantor and Dedekind. Each is treated, along with precursors and influences in both mathematics and philosophy. The next chapters provide analyses of figures like du Bois-Reymond, Weyl, Brouwer, Peirce, and Whitehead. The final four chapters each focus on a more or less contemporary take on continuity that is outside the Dedekind–Cantor hegemony: a predicative approach, accounts that do not take continua to be composed of points, constructive approaches, and non-Archimedean accounts that make essential use of infinitesimals.

Keywords: continuity,  Aristotle,  infinity,  infinitesimal,  Dedekind,  Cantor,  pointintuitionism,  Archimedean,  indivisibles

Key Scholars

  • Plato
  • Aristotle
  • Parmenides
  • Zeno
  • Alexander of Aphrodisias
  • Thomas Bradwardine
  • Bernard Bolzano
  • Galileo Galilei
  • Bonaventura Cavalieri
  • Gottfried Wilhelm Leibniz
  • Cauchey
  • Immanuel Kant
  • Georg Cantor
  • Richard Dedekind
  • Paul du Bois-Reymond
  • Hermann Weyl
  • Giuseppi Veronese
  • L. E. J. Brouwer
  • Alfred NorthWhitehead
  • Charles Sanders Peirce
  • Abraham Robinson

20th/21st Century Scholars

  • Matthew E. Moore
  • John L. Bell
  • Jerome Havenel
  • Fernando Zalamea
  • Gary Slater
  • Peter Ochs
  • Francesco Bellucci
  • Jon Alan Schmidt
  • D. A. Anapolitanos
  • D. Christopoulou
  • Robert Lane
  • Teppei Hayashi
  • Philip Ehrlich
  • Geoffrey Hellman
  • Stewart Shapiro
  • Marc Champagne

Varieties of Continua

Source: Varieties of Continua: From Regions to Points and Back

  • Ancient Atomism
  • Aristotle
  • Dedekind Cantor
  • Non Standard Analysis
  • Intuitionistic Analysis
  • Smooth Infinitesimal Analysis
  • Point based Predicative Analysis
  • Point Free Geometry and Analysis

Source: CONTEMPORARY INFINITESIMALIST THEORIES OF CONTINUA AND THEIR LATE 19TH- AND EARLY 20TH-CENTURY FORERUNNERS

  • Real Number System = Arithematic Continuum
  • Geometric Linear Continuum
  • Cantor Dedekind Axiom
  • Constructivist & Predicativist Theories
  • Infinitesimal Theories
    • Alain Connes’s Noncommutative (Differential) Geometry
    • Nonstandard Analysis
    • Nilpotent Infinitesimalist approaches to portions of differential geometry
    • Theory of Surreal Numbers
Emergence of Non Archimedean Systems of Magnitudes
  • Non archimedean geometry of G. Veronese
  • Tullio Levi-Civita
  • David Hilbert
  • Celebrated algebraico -set-theoretic work of Hans Hahn
  • du Bois-Reymond on the rates of growth of real functions
  • G. H. Hardy
  • Felix Hausdorff
Nonstandard Theories of Continua
  • Archimedean Axiom
  • Veronese’s Theory of Continua
  • Hahn’s non archimedean generalizations of the archimedean arithmetic continuum
  • Pantachies of du Bois-Reymond and Hausdorff
  • Elementary Continua
  • Nonstandard (Robinsonian) Continua
  • The absolute arithmetic continuum: Conway’s system of Surreal Numbers
  • Hjelmslev’s Nilpotent Infinitesimalist Continuum
  • Infinitesimalist Approches to differential geometry of Smooth Manifolds and their underlying continua
  • Invertible and Nilpotent infinitesimals afterthoughts

Charles Sanders Peirce’s Continuum

Evolution of Peirce’s Continuum

Source: Peirce on Continuity (Chapter 8 of Book by Vincent G Potter)

  • Pre Cantorian Until 1884
  • Cantorian 1884 – 1894
  • Kantistic 1895 – 1908
  • Post Cantorian 1908 – 1911

Source: Peirce’s Clarifications of Continuity / Jerome Havenel – Five Periods

  • Anti Nominalistic Period (1868 – 1884)
  • Cantorian Period (1884 – 1892)
  • Infinitesimal Period (1892 – 1897)
  • Super Multitudinous Period (1897 – 1907)
  • Topological Period (1908 – 1913)

Source: Logic of Relations and Diagrammatic Reasoning / Note 24

Scholars have explained how “continuity” is fundamental to Peirce’s mature philosophy; see Hookway (1985), Stjernfelt (2007) and Zalamea (2010). Moore (2015) evaluates Peirce’s description from a mathematical point of view. Dauben (1982) presents in some detail Peirce’s conception of the continuum from the point of view of set theory.

Source: The Continuity of Peirce’s Thought

A comprehensive and systematic reconstruction of the philosophy of Charles S. Peirce, perhaps America’s most far-ranging and original philosopher, which reveals the unity of his complex and influential body of thought. 

We are still in the early stages of understanding the thought of C. S. Peirce (1839-1914). Although much good work has been done in isolated areas, relatively little considers the Peircean system as a whole. Peirce made it his life’s work to construct a scientifically sophisticated and logically rigorous philosophical system, culminating in a realist epistemology and a metaphysical theory (“synechism”) that postulates the connectedness of all things in a universal evolutionary process. 

In The Continuity of Peirce’s Thought, Kelly Parker shows how the principle of continuity functions in phenomenology and semeiotics, the two most novel and important of Peirce’s philosophical sciences, which mediate between mathematics and metaphysics. Parker argues that Peirce’s concept of continuity is the central organizing theme of the entire Peircean philosophical corpus. He explains how Peirce’s unique conception of the mathematical continuum shapes the broad sweep of his thought, extending from mathematics to metaphysics and in religion. He thus provides a convenient and useful overview of Peirce’s philosophical system, situating it within the history of ideas and mapping interconnections among the diverse areas of Peirce’s work. 

This challenging yet helpful book adopts an innovative approach to achieve the ambitious goal of more fully understanding the interrelationship of all the elements in the entire corpus of Peirce’s writings. Given Peirce’s importance in fields ranging from philosophy to mathematics to literary and cultural studies, this new book should appeal to all who seek a fuller, unified understanding of the career and overarching contributions of Peirce, one of the key figures in the American philosophical tradition.

Source: Peirce’s Logic of continuity: a conceptual and mathematical approach to the continuum and the existential graphs

Peirce’s logic of continuity is explored from a double perspective: (i) Peirce’s original understanding of the continuum, alternative to Cantor’s analytical Real line, (ii) Peirce’s original construction of a topological logic – the existential graphs – alternative to the algebraic presentation of propositional and first-order calculi. Peirce’s general architectonics, oriented to back-and-forth hierarchical crossings between the global and the local, is reflected with great care both in the continuum and the existential graphs.

Source: Two New Gestures on Peirce’s Continuum and the Existential Graphs: Plurality of Pragmatic Imagination

Source: Two New Gestures on Peirce’s Continuum and the Existential Graphs: Plurality of Pragmatic Imagination

Source: Two New Gestures on Peirce’s Continuum and the Existential Graphs: Plurality of Pragmatic Imagination

Source: Two New Gestures on Peirce’s Continuum and the Existential Graphs: Plurality of Pragmatic Imagination

Source: Does Continuity Allow For Emergence?

The present paper proposes an emergentist reading of Peirce, with special reference to his concept of evolution. Although the author never adopts the word “emergence” in a technical manner, it will be demonstrated that the core problem of emergence lies at the heart of his evolutionary doctrine, generally displayed by the interplay of his three well-known categories of Firstness, Secondness and Thirdness. Indeed, although the Classical pragmatists most quoted in connection to emergentism are Dewey and Mead (and William James to some degree), scholars have recently suggested some emergentist readings of Peirce’s thought (cf. above all Tiercelin 1998, Quieroz & El-Hani 2006, Rose 2016), in particular with regard to semiotic process and cosmogony. Exploring further the path opened by those researches, the present paper aims to clarify the theoretical problem of emergent evolution from a pragmatist perspective and especially to illustrate Peirce’s emergentist standpoint. In order to reach this goal, the article is divided into four parts: after (1) a brief introduction to the contemporary debates on emergence, (2) I give a historical overview of Classical Pragmatism and British Emergentists, (3) with a special focus on the common roots of the British Emergentists and Peirce on evolution. Finally, (4) I offer an emergentist reading of Peirce’s theory of evolution. In particular, I show how his strong emphasis on chance and the “growth” of the universe go together with his arch-stone of synechism (that is his theory of continuity), through what he calls agapasm.

C. S. Peirce and the Nested Continua Model of Religious Interpretation

Source: C. S. Peirce and the Nested Continua Model of Religious Interpretation

The writings of the American pragmatist thinker Charles S. Peirce (1839–1914) provide resources for a hermeneutical model called the nested continua model of religious interpretation. A diagrammatic demonstration of iconic relational logic akin to Peirce’s Existential Graphs, the nested continua model is rendered as a series of concentric circles graphed upon a two-dimensional plane. When faced with some problem of interpretation, one may draw discrete markings that signify that problem’s logical distinctions, then represent in the form of circles successive contexts by which these distinctions may be examined in relation to one another, arranged ordinally at relative degrees of specificity and vagueness, aesthetic intensity, and concrete reasonableness. Drawing from Peter Ochs’s Scriptural Reasoning model of interfaith dialogue and Robert C. Neville’s axiology of thinking—each of which makes creative use of Peirce’s logic—this project aims to achieve an analytical unity between these two thinkers’ projects, which can then be addressed to further theological ends. The model hinges between diagrammatic and ameliorative functions, honing its logic to disclose contexts in which its theological or metaphysical claims might, if needed, be revised. These are claims made from a particular identity in a particular cultural context, but the logical rules upon which the claims are based are accessible to all. The book’s aims are to reconcile Neville’s and Ochs’s insights, explore the means by which phenomenal experience becomes encoded in texts and practices, and expand the capacity for comparing the texts and practices of one community with those of another.

Source: C. S. Peirce and the Nested Continua Model of Religious Interpretation / Review Notre Dame

Gary Slater has produced a highly original and intellectually sophisticated argument intended to develop resources in Charles S. Peirce’s philosophy for the purposes of contemporary philosophical theology. Toward that end, Slater articulates a “nested continua model” for religious interpretation early in the book, one indebted to Peirce’s “Existential Graphs,” a system of diagrams designed to provide a visual representation of the process of human reasoning. Although it has been the subject of considerable discussion, nevertheless, very few scholars have developed practical applications for Peirce’s system of graphs. Peter Ochs is an exception, having adapted Peirce’s logic for specifically theological purposes in an important book published in 1998. One of the valuable secondary contributions of Slater’s project is his successful attempt to place Ochs’ “postliberal” deliberations in productive conversation with Robert Neville’s straightforwardly liberal theology. (Along with Robert Corrington and Hermann Deuser, Ochs and Neville have been the most prominent and influential contemporary theological interpreters of Peirce’s philosophy.) As a result, Slater is able to formulate a perspective that combines a nuanced historicism with a robust metaphysics — a combination rare enough to be noteworthy.

The complexities of the nested continua model are unpacked at some length early in the book, initially in the Introduction and then with greater detail toward the end of the first chapter. This model involves the use of inscriptions drawn on a two-dimensional graph, both as specific markings and as a series of concentric circles. On Slater’s account, the model can be used in a variety of ways. Inspired by Neville’s metaphysical speculations, a point marked at the center of the graph would represent “absolute firstness,” the creative source of everything determinate in the universe. Emanating from this point, a series of nested circles can be imagined as portraying realities further and further removed from the act of creation, so that eternity would be represented by the space beyond the outermost circle. Each circle is a continuum, nested within continua of greater generality and “emerging” from those more determinate realities that it enframes. Using the model to illustrate the very different kind of analysis with which Ochs is preoccupied, each circle can also be regarded as supplying an interpretive framework for understanding everything that it contains, even as each framework is itself rendered meaningful by the broader contexts in which it is embedded. Slater observes that any two things that might be distinguished from each other can be marked on the graph as “A” and “B”; any circle drawn around them (“C”) signifies a rule of reasoning useful for interpreting these things. “The power of the model,” Slater suggests, “consists in its claim that any problem or interpretive framework can be graphed, and that the logical form for doing so — ‘A’ relates to ‘B’ with respect to some ‘C’ — remains consistent across all levels of generality” (p. 13).

In the second chapter Slater delineates the intellectual resources from which the nested continua model was developed, most of them Peircean in origin. Some of the difficulty in fully evaluating Slater’s project can be linked to certain unresolved problems in Peirce’s philosophy. Although Slater’s model is inspired by Peirce’s Existential Graphs, it should be noted that Peirce began to develop that iconic system of logic only late in his career; when he died this work remained sketchy, the Gamma graphs (devoted to modal logic) having never been completed. Peirce’s logical deliberations, moreover, were informed by his study of the topology of Johann Listing, a 19th century mathematician whose approach to the subject differs dramatically from that of later 20th and 21st century topologists. Similarly, Peirce’s concept of the infinitesimal, appropriated by Slater for multiple purposes (including his account of how continua emerge one from another), was never fully developed, leaning on the earlier work of his father Benjamin and only vaguely anticipating the way in which this concept would later be employed by Abraham Robinson in his formulation of non-standard analysis (in the 1960’s). Surely Peirce’s investigations in logic, topology and the mathematics of the infinitesimal must be regarded as unfinished business.

It should be noted that Peirce regarded any two-dimensional graph as being inadequate for the purposes of his modal logic. For the Gamma system, not a single “sheet of assertion,” but rather a three-dimensional “book of sheets, tacked together at points” would be required. This conclusion is consistent with Peirce’s critique of Josiah Royce’s map metaphor, articulated in his review of the latter’s Gifford Lectures on The World and the Individual; that map would have to be conceived as only a “section” of some three-dimensional projection. Slater himself recognizes this limitation of his model, admitting that “change itself cannot be rendered on the graph, which is after all a two-dimensional space” (p. 103). His choice is to work within this limitation rather than attempt to develop the model, thus understanding change “in terms of infinitesimal emergence.” He further admits that this move involves leaning on a concept of “emergence” that “Peirce himself did not use” (p. 85).

Whatever the limitations of Slater’s nested continua model, the ingenuity displayed in his articulation of it is impressive. Moreover, he is careful to modestly circumscribe claims about its potential usefulness, insisting that its employment ought to be understood as only a starting point for any theological inquiry (p. 209). Early on, he describes it as “a kind of abductive Petri dish” for the purpose of testing various theological hypotheses (p. 75). It facilitates a process of experimental thinking and the clarification of vague ideas, especially in the early stages of inquiry. Rather than constituting a full-blown theological method, then, Slater envisions the graphing as playing a key but limited role in such a method.

On my evaluation, the general utility of the model (as with Peirce’s existential graphs) consists in its pronounced ability to direct attention for the purpose of making certain inferences (what Slater typically refers to as “willful awareness”), thus displaying the crucial role that attention plays in all forms of human reasoning. (Consider Slater’s insightful discussion of “Prescisive and Habit-Conditioned Reasoning” on pages 79-82 — although I think that Slater conflates “prescision” with “hypostatic abstraction” in a way that he might be more careful to avoid.) The iconic features of the model also enable Slater to avoid the pitfalls of what he refers to as “linguistic determinism” (p. 122); unlike certain contemporary neo-pragmatists, Slater is disinclined to reduce semiosis to language, or limit interpretation to verbal behavior.

With regard to particular uses of the model here, there are also some moments of extraordinary insight, highly original ideas that would be well worth developing. One consists in Slater’s use of the nested continua model as an analytical tool to safeguard against metaphysical absolutism or idolatry, playing on the contrast in the model between “translucent” and “opaque” circles of interpretation. Another, toward the end of the book, involves his establishing a link between love and “singular evil” via the Scotistic concept of haecceity (pp. 193-98); since both presuppose an awareness of the radically individual character of things it makes sense on his account to describe such evil as a kind of “love gone wrong.” This is nicely done. There are also tantalizing suggestions about a type of “Thirdness” that might be shown to function “as the ultimate logical interpretant with regard to prayer” (p. 157; although the promise to develop this suggestion in a later chapter is only partially redeemed).

However one might evaluate the virtues or shortcomings of Slater’s logical model, on my reading, the significance of this book can by no means be reduced to such an evaluation. For example, the discussion and critique of theological supersessionism is thoughtful and illuminating, even while it is not linked closely enough to the nested continua model to demonstrate how or even that the model is required for the purposes of this discussion. Slater’s recognition that theological reflection takes multiple forms and so cannot be reduced to a set of responses to problematic beliefs or situations mirrors his nuanced interpretation of Peirce’s philosophy. While careful to note that Peirce’s full-blown theory of inquiry is capacious enough to embrace both the early “stimulus of doubt” account and the later portrayal of musement, Slater wisely avoids driving any kind of deep wedge between Peirce’s initial pragmatism and his eventual “pragmaticism.” The summary of key intellectual influences on Peirce’s philosophy in the book’s first chapter is a model of clarity. And since Peirce wrote very little about the topic, Slater’s creative gesturing “Toward a Peircean Philosophy of History” in chapter three deserves careful consideration

As already indicated, Slater’s attempt to mediate between the contrasting philosophical and theological perspectives articulated by Ochs and Neville represents a significant achievement. His sensitive reading of these two important but sometimes neglected interpreters of Peirce is scattered throughout the book, but forms the bulk of chapters four and five. Ochs’ portrayal of “scriptural reasoning” as an historically conditioned mode of “repair” and Neville’s account of all human thought as being intrinsically and essentially “axiological” represent a challenging subject matter rendered lucid by Slater’s treatment.

Yet Slater’s attention is by no means limited to the work of these two figures. He provides perhaps the most comprehensive overview to date of the scholarly conversation devoted to Peirce’s relevance for theology and religious studies. This overview extends back to the pioneering labors of John E. Smith, includes discussion of Corrington’s “ecstatic naturalism” as well as my own investigations in “theosemiotic,” and then proceeds to incorporate insights gleaned from the work of a small group of younger scholars (such as Leon Niemoczynski, Anette Ejsing, Abraham Robinson and Brandon Daniel-Hughes) who are presently shaping that conversation in new and interesting ways. With the publication of this book, Gary Slater now occupies a prominent place in this latter group. His voice is an original one, his scholarly range impressive (so that his reading of pragmatism registers points of view as disparate as those of Robert Brandom and Sandra Rosenthal). The bold creativity of his model is likely to attract the attention of numerous readers. The insightful application of that model to important issues in the study of religion should both sustain and reward such attention.

Source: A Visual Model of Peirce’s 66 Classes of Signs Unravels His Late Proposal of Enlarging Semiotic Theory

Source: A Less Simplistic Metaphysics: Peirce’s Layered Theory of Meaning as a Layered Theory of Being

Source: PEIRCE’S CONTINUUM: A METHODOLOGICAL AND MATHEMATICAL APPROACH

Source: PEIRCE’S CONTINUUM: A METHODOLOGICAL AND MATHEMATICAL APPROACH

Source: PEIRCE’S CONTINUUM: A METHODOLOGICAL AND MATHEMATICAL APPROACH

Continuum East and West

THE CONTINUUM EAST AND WEST Peter G. Jones
Philosophy Pathways, 185, May 2014

This essay examines the relationship between mysticism, for which Buddhism’s Middle Way doctrine would serve here as a defining example, and what, for want of better word, we call ‘Western’ philosophy. This is an issue of general interest to philosophers, since sooner or later in our investigations we must all decide whether the ‘Western’ kind of philosophy makes more or less sense to us than the ‘Eastern’ kind.

One obstacle we face in trying to make this decision is the difficulty of discerning clearly the defining characteristics of the two philosophies, those features that lead us to make such a final and definite distinction between them in the first place. We commonly speak of ‘Eastern’ and ‘Western’ philosophy, but are not so commonly able to say quite what we mean by this. The relevant issues are profound, mind-bending and probably inexhaustible. They need not be complicated, and they are often quite simple, but they are always immensely challenging.

One of these simple (stripped of the details) yet challenging issues would be the true nature of the continuum. The discussion that follows outlines the view of physicist, mathematician and philosopher Hermann Weyl. Weyl makes a careful distinction between the ‘arithmetical’ continuum, the continuum conceived of as an extended object, as it must be for the real numbers and space-time, and the ‘intuitive’ continuum, the empirical continuum of experience, which is not extended, and he demonstrates that when we set out to define what we mean by ‘Eastern’ and ‘Western’ philosophy, the foundations of analysis would be a good place to start. The interconnectedness of all the relevant issues at a foundational level, for all roads lead to Rome, means that we may as well start where we like, but mathematics takes us immediately to what might be the most clearly discernable and easily described difference between the two philosophies and worldviews, perhaps also the most general and profound, namely their entirely different conceptions of the continuum.

As there is just one source for each author quoted here I have not added numbered references but just tried to make it clear who is talking. Italics are always original.

>><<

In The Continuum: A Critical Examination of the Foundations of Analysis, Hermann Weyl points out that the extended space-time of physics and ordinary perception is, in the same way as the number line, a construction of reason and not intuitively or empirically given. He addresses a problem that arises in different guises but with an equal vengeance in religion, physics, mathematics and metaphysics. It is the problem of modelling a continuum as an extended series of discrete locations or ‘things’, as we do must do for the number line, geometry and arithmetic, space and time, and even for our very concept of the continuum, when a series of discrete locations or ‘things’ is exactly and precisely what a continuum is not.

A continuum cannot be extended as a series of points or moments for the reasons Weyl gives below, and yet it must be in order for anything to be extended in space and time. This causes a problem in philosophy. It would be a ‘first-order’ metaphysical problem or ‘antinomy’, a straight choice between two ideas neither of which work. It would be closely connected with the question of how many angels can dance on the head of a pin, of how small we can make an angel before it becomes the ‘ghost of a departed quantity’. The various problems and paradoxes to which the intellectually-constructed continuum of the arithmetical line gives rise has no impact on the usefulness of mathematics, which is wholly dependent on this conception, but it indicates that the continuum of space-time is not an equivalent case and is, rather, a true continuum. As such, it would not be a set of locations but a unity. A unity has no parts. This would suggest that space and time are conceptual imputations and that Reality, whatever is truly and independently-real amongst all the smoke and mirrors, is not in fact extended. This is a difficult idea but not a new one, and it is widely popular in religion. When theoretical physicists say ‘distance is arbitrary’, perhaps they are suggesting something similar. It might at least help to explain how a Big Bang can appear to have occurred before there is, was or ever will be a time or a place for it to have happened. For an ultimate view it would not have happened. If the continuum cannot have parts then all co-ordinate systems are emergent.

Here is Tobias Dantzig, a mathematician admired by Einstein, introducing the issues.

Herein I see the genesis of the conflict between geometrical intuition, from which our physical concepts derive, and the logic of arithmetic. The harmony of the universe knows only one musical form – the legato; while the symphony of numbers knows only its opposite, – the staccato. All attempts to reconcile this discrepancy are based on the hope that an accelerated staccato may appear to our senses as legato. Yet our intellect will always brand such attempts as deceptions and reject such theories as an insult, as a metaphysics that purports to explain away a concept by resolving it into its opposite.

While a series of points serves perfectly well for the continuum of the number line and arithmetic, on examination it is a paradoxical idea that must be rejected in both metaphysics and physics as a model of space-time. The continuum of physics is, at this time, extended as a series of points and moments, and as such no sense can be made of it. Viewed as a real phenomenon a continuum so-defined would either be paradoxical or fail to qualify for the name. We have every right to define the continuum for mathematics as we currently do, and if our idea is paradoxical then it is only a problem when we investigate the foundations of analysis. When we define the continuum for mathematics we are not making a claim about the nature of Reality. Elsewhere it would be a different matter. In metaphysics we certainly cannot adopt a priori an arithmetical definition of the continuum. Insofar as it relates to metaphysics this might be the central message of Weyl’s book. At the same time, physics and ordinary perception are heavily theory-laden, dangerously so. Our usual everyday theory is that time and space are extended in just the same way as is the number line, such that space- and time-points can be represented as locations in an extended co-ordinate system. But is there any evidence that space and time are extended objects? What is it that our wristwatch is actually measuring? Are we quite sure that our usual theory of extension, for which space-time would be a ‘classical’ or Newtonian phenomenon, is fundamentally correct? Is it a metaphysical conjecture, a testable scientific theory, something we know from experience or a highly evolved misinterpretation? For our Western tradition of philosophy this would be a famously undecidable problem. Here the continuum appears to be paradoxical, for it cannot be extended ex hypothesis, and yet, by some magic, it is. Or it seems to be. For the Eastern tradition this everyday theory of space-time would be testable and it would fail the tests, being refutable in logic and falsifiable in experience. The continuum would be a unity, just as its name implies.

Weyl reduces the conceptually extended continuum of mathematics and traditional physics to what he calls the ‘true’ or ‘intuitive’ continuum, where the latter is carefully distinguished from the former. The intuitive continuum, the continuum as we experience it, is not extended as a series of moments or points. We do not experience time and space as consisting of moments and points, or, if we do, it is only ever the same moment and point. We are always here and now. What is more, there is actually something very odd about the idea that space and time are ‘grainy’ in this way. The length of ten thousand points would be equal to the length of one point, for a start, so no amount of points would be sufficient to construct basic geometry, let alone a piano. In the same way, no amount of moments would be sufficient to account for motion and change. Space and time are explanatory theories, Weyl proposes, generated by reason and imagination, not empirical phenomena.

For an orthodox view of space-time here is a passage from Wikipedia from the entry for Hermann Minkowsky.

This new reality was that space and time, as physical constructs, have to be combined into a new mathematical/physical entity called ‘space-time’, because the equations of relativity show that both the space and time coordinates of any event must get mixed together by the mathematics, in order to accurately describe what we see. Because space consists of 3 dimensions, and time is 1- dimensional, space-time must, therefore, be a 4-dimensional object. It is believed to be a ‘continuum’ because so far as we know, there are no missing points in space or instants in time, and both can be subdivided without any apparent limit in size or duration. So, physicists now routinely consider our world to be embedded in this 4-dimensional Space-Time continuum, and all events, places, moments in history, actions and so on are described in terms of their location in Space-Time.

Dantzig explores the origins of this co-ordinate system.

The notion of equal-greater-less precedes the number concept. We learn to compare before we lean to evaluate. Arithmetic does not begin with numbers; it begins with criteria. Having learnt to apply these criteria of equal-greater-less, man’s next step was to devise models for each type of plurality. These models are deposited in his memory very much as the standard meter is deposited at the Bureau of Longitudes in Paris. One, two, three, four, five …; we could just as well have said: I,

wings, clover, legs, hand … and, for all we know, the latter preceded our present form.

He goes on to observe that the staccato of the numbers is not empirical or intuitive, but a superimposition.

It is possible to assign to any point on a line a unique real number, and, conversely, any real number can be represented in a unique manner by a point on the line.

This is the famous Dedekind-Cantor axiom. This proposition, by sanctifying the tacit assumption on which analytical geometry had operated for over two hundred years, became the fundamental axiom of this discipline. It defines a new mathematical being, the arithmetical line. Henceforth the line – and consequently the plane, and space – ceases to be an intuitive notion and is reduced to being a mere carrier of numbers.

In the following passage Dantzig notes the paradoxical nature of the arithmetical line. This matters little in mathematics, but when the arithmetical line is taken to be a model of the true continuum it renders Reality paradoxical and causes philosophical havoc, in particular a deep rift between two quite different traditions of philosophy.

The axiom of Dedekind – “if all points of a straight line fall into two classes, such that every point of the first class lies to the left of any point of the second class, then there exists one and only one point which produces this division of all points into two classes, this severing of the straight line into two portions” – this axiom is just a skilful paraphrase of the fundamental property we attribute to time. Our intuition permits us, by an act of the mind, to sever all time into the two classes, the past and the future, which are mutually exclusive and yet together comprise all of time, eternity: The now is the partition which separates all the past from all the future; any instant of the past was once a now, any instant of the future will be a now anon, and so any instant may itself act as such a partition. To be sure, of the past we know only disparate instants, yet, by an act of the mind we fill out the gaps; we conceive that between any two instants – no matter how closely these may be associated in our memory – there were other instants, and we postulate the same compactness for the future. This is what we mean by the flow of time.

Furthermore, paradoxical though this may seem, the present is truly irrational in the Dedekind sense of the word, for while it acts as partition it is neither a part of the past nor a part of the future. Indeed, in an arithmetic based on pure time, if such an arithmetic was at all possible, it is the irrational which would be taken as a matter of course, while all the painstaking efforts of our logic would be directed toward establishing the existence of rational numbers.

In other words, the Dedekind sense of the word ‘present’ is irrational. Space-time cannot have the properties he assigns to the number line unless the Cosmos is irrational. This is the problem addressed by Weyl. He deals with it by making a clear distinction between the intuitive or experienced continuum, the intuition of the continuum that for all of us is an empirical phenomenon, and the intellectually constructed faux-continuum of Dedekind’s arithmetical line. They could hardly be more different.

To the criticism that the intuition of the continuum in no way contains those logical principles on which we must rely for the exact definition of the concept “real number,” we respond that the conceptual world of mathematics is so foreign to what the intuitive continuum presents to us that the demand for coincidence between the two must be dismissed as absurd.

He points out that the usefulness of the arithmetical line has no bearing on its plausibility as a model of the space-time continuum.

Whichever view of the relation of mathematics to nature one takes, there is no independent physical conception of the continuum on offer in all this, since all the mathematics is filtered through the real number system (or Hilbertian geometry as a surrogate). Moreover, I don’t see that any argument can be made from the enormously successful applications of mathematics in natural science to the conclusion that one or another of the mathematical conceptions of the continuum surveyed above is uniquely singled out as the “real one”. In any case, the work on the reach of predicative mathematics cited at the end of the preceding section shows that the properties of the continuum needed for its applications in natural science do not require it to have a definite reality in the platonistic sense.

Here is extract from an essay on Weyl and the continuum by John Bell.

…Weyl regards the experienced continuous flow of phenomenal time as constituting an insuperable barrier to the whole enterprise of representing this continuum in terms of individual points, and even to the characterization of “individual temporal point” itself. As he says,

“The view of a flow consisting of points and, therefore, also dissolving into points turns out to be mistaken: precisely what eludes us is the nature of the continuity, the flowing from point to point; in other words, the secret of how the continually enduring present can continually slip away into the receding past.

Each one of us, at every moment, directly experiences the true character of this temporal continuity. But, because of the genuine primitiveness of phenomenal time, we cannot put our experiences into words. So we shall content ourselves with the following description. What I am conscious of is for me both a being-now and,

in its essence, something which, with its temporal position, slips away. In this way there arises the persisting factual extent, something ever new which endures and changes in consciousness.”

We see here that an examination of the foundations of analysis leads us immediately into the realms of psychology, physics, metaphysics, religion, consciousness studies and more. Bell continues.

Weyl sums up what he thinks can be affirmed about “objectively presented time”— by which I take it he means “phenomenal time described in an objective manner”— in the following two assertions, which he claims apply equally, mutatis mutandis, to every intuitively given continuum, in particular, to the continuum of spatial extension:

1. An individual point in it is non-independent, i.e., is pure nothingness when taken by itself, and exists only as a “point of transition” (which, of course, can in no way be understood mathematically);

2. It is due to the essence of time (and not to contingent imperfections in our medium) that a fixed temporal point cannot be exhibited in any way, that always only an approximate, never an exact determination is possible.

The fact that single points in a true continuum “cannot be exhibited” arises, Weyl continues, from the fact that they are not genuine individuals and so cannot be characterized by their properties. In the physical world they are never defined absolutely, but only in terms of a coordinate system, which, in an arresting metaphor, Weyl describes as “the unavoidable residue of the eradication of the ego.”

In particular, he found compelling the fact that the Brouwerian continuum is not the union of two disjoint nonempty parts— that it is, in a word, indecomposable. “A genuine continuum,” Weyl says, “cannot be divided into separate fragments.” In later publications he expresses this more colourfully by quoting Anaxagoras to the effect that a continuum “defies the chopping off of its parts with a hatchet.”

Weyl’s book on the continuum delves little further into metaphysical issues than is necessary for his examination of analysis. Elsewhere he says more, and we find a clear connection between his mathematico-philosophical views and Buddhism’s theory of emptiness and doctrine of dependent origination. As far as it goes his book on the continuum could be read as a mathematical explanation of the universe of the perennial philosophy, and of how it differs from that of the Western tradition in at least one vital respect. Bell makes the correlation clear.

In The Open World (1932), Weyl provides an eloquent formulation of his philosophical outlook, which quickly moves beyond its initial echoes of Schopenhauer:

“The beginning of all philosophical thought is the realization that the perceptual world is but an image, a vision, a phenomenon of our consciousness; our consciousness does not directly grasp a transcendental real world which is as it appears. The tension between subject and object is no doubt reflected in our conscious acts, for example, in sense perceptions. Nevertheless, from the purely epistemological point of view, no objection can be made to a phenomenalism which would like to limit science to the description of what is “immediately given to consciousness”. The postulation of the real ego, of the thou and of the world, is a metaphysical matter, not judgment, but an act of acknowledgment and belief.

But this belief is after all the soul of all knowledge. It was an error of idealism to assume that the phenomena of consciousness guarantee the reality of the ego in an essentially different and somehow more certain way than the reality of the external world; in the transition from consciousness to reality the ego, the thou and the world rise into existence indissolubly connected and, as it were, at one stroke.”

Any comparison of ‘Eastern’ and ‘Western’ approaches to philosophy must eventually end up here, examining the question of whether the continuum of space-time is arithmetical and paradoxical, or whether it would make more sense to say that spatio-temporal extension is an interpretation of appearances, a relationship between appearances, and not an empirical or even truly real phenomenon. Whichever way we decide this question, an examination of these issues will reveal a clear and crucial difference of opinion between East and West over the ultimate nature of Reality.

It is absurdly misleading to use the words ‘Western’ and ‘Eastern’ to describe two philosophical camps, and really it is dualism and nondualism that we are comparing here, both of which appear all over the world. Whatever words we use, mathematics can help us to pin down our definitions in important respects.

Weyl summarises his view as follows.

The category of the natural numbers can supply the foundation of a mathematical discipline. But perhaps the continuum cannot, since it fails to satisfy the requirements [mentioned in Chapter1]: as basic a notion as that of the point in the continuum lacks the required support in intuition. It is to the credit of Bergson’s philosophy to have pointed out forcefully this deep division between the world of mathematical concepts

and the immediately experienced continuity of phenomenal time.

The view of a flow consisting of points and, therefore, also dissolving into points turns out to be false. Precisely what eludes us is the nature of the continuity, the flowing from point to point; in other words, the secret of how the continually enduring present can continually slip away into the receding past….

…When our experience has turned into a real process in a real world and our phenomenal time has spread itself out over this world and assumed a cosmic dimension, we are not satisfied with replacing the continuum by the exact concept of the real numbers, in spite of the essential and undeniable inexactness arising from what is given. For, as always, there is more at work here than heavy-handed schematizing or cognitive economizing devised for fulfilling our practical tasks and objectives. Here we discover genuine reason which lays bare the “Logos” dwelling in reality (just as purely as is possible for this consciousness which cannot “leap over its own shadow”). But to discuss this further cannot be our business here. Certainly, the intuitive and the mathematical continuum do not coincide; a deep chasm is fixed between them….

…The reflections contained in this section are, of course, only a slightly illuminating surrogate for a genuine philosophy of the continuum. But since no penetrating treatment of this topic is at hand and since our task is mathematical rather than epistemological, the matter can rest there.

For a book on analysis it would have been inappropriate for Weyl to say more about this. If we are examining the pivotal questions on which Eastern and Western philosophies are divided, however, then the matter cannot rest here. The former philosophy makes a claim about the continuum that is denied point-blank by the latter. It may still be true that ‘no penetrating treatment of this topic is at hand’, at least outside of the ‘mystical’ literature, but this would not reflect on the importance of this topic across all of philosophy, and it need not prevent us from forming a view on which of these two philosophical approaches gives the most plausible description of space and time.

Is space-time extended or is it a continuum? Weyl suggest that we cannot have it both ways. Nagarjuna’s Middle Way Buddhism, which is infuriatingly stubborn when it comes to endorsing extreme views on any topic, would say that the question is not quite answerable in this straightforward form. There would be a sense in which it is neither and a sense in which it is both. There is not a straightforward disagreement between East and West on the answer to this question, therefore, with the two sides adopting equal and opposite views. All the same, it seems true to say that the very different answers they give to this question reveal one of the most crucial and far-reaching differences between these two traditions of philosophical thought.

Bibliography

Bell, John L, ‘Hermann Weyl on intuition and the continuum’.

Click to access Hermann%20Weyl.pdf

Dantzig, Tobias, Number – The Language of Science, (Pearson Education 2005 (1930)

Weyl, Hermann, The Continuum: A Critical Examination of the Foundations of Analysis, Dover (1987)

My Related Posts

Charles Sanders Peirce’s Visual Logic: Diagrams and Existential Graphs

Charles Sanders Peirce’s Theory of Signs

The Aesthetics of Charles Sanders Peirce

Indra’s Net: On Interconnectedness

The Great Chain of Being

Maha Vakyas: Great Aphorisms in Vedanta

On Synchronicity

Key Sources of Research

Implications of Synechism: Continuity and Second-Order Vagueness

Implicações do Sinequismo: Lógica Triádica e Vagueza de Segunda Ordem

Marco Annoni

Università di Pisa – Italia

marcoabrema@hotmail.com

COGNI TI O-ESTUDOS: Revista Eletrônica de Filosofia

Centro de Estudos do Pragmatismo – Programa de Estudos Pós-Graduados em Filosofia – Pontifícia Universidade Católica de São Paulo

São Paulo, Volume 3, Número 2, p. 096- 108, TEXTO 11/3.2, julho/dezembro, 2006

https://www.academia.edu/1965259/Implications_of_Synechism_Continuity_and_Second_Order_Vagueness

Continuity as vagueness: The mathematical antecedents of Peirce’s semiotics*

PETER OCHS

Semiotica 96-3/4 (1993), 231-255 0037-1998/93/0096-0231

https://www.academia.edu/19870302/Continuity_as_vagueness_The_mathematical_antecedents_of_Peirces_semiotics

Peirce and Brouwer

Conor Mayo-Wilson

September 5, 2011

https://www.academia.edu/954648/Peirce_and_Brouwer

Peirce, Leibniz, and the threshold of pragmatism

Francesco Bellucci

Semiotica 2013; 195: 331 – 355
DOI 10.1515/sem-2013-0030

Dynamical Interpretation of Leibniz’s Continuum

Vassil VIDINSKY*

Peirce and Leibniz on Continuity and the
Continuum

D. A. Anapolitanos and D. Christopoulou*

*Corresponding author: D. Christopoulou, Assistant Professor Mathematics Department, Kapodistrian University of Athens, Athens, Greece, E-mail: chrdemet@yahoo.gr
D. A. Anapolitanos, History and Philosophy of Science Department, National and Kapodistrian University of Athens, Athens, Greece, E-mail: danap@phs.uoa.gr

Metaphysica 2020; aop

https://doi.org/10.1515/mp-2019-0008

https://www.academia.edu/44132364/Peirce_and_Leibniz_on_Continuity_and_the_Continuum_with_D_Anapolitanos_

Peirce’s Topological Concepts

Jérôme Havenel

Draft version of the book chapter published in
New Essays on Peirce’s Philosophy of Mathematics,
Matthew E. Moore ed, Open Court, 2010

Peirce’s Logic of Continuity

A Conceptual and Mathematical Approach

Fernando Zalamea

Book

https://www.academia.edu/31948393/ZalameaPeirceCont_pdf

Peirce’s Clarifications of Continuity

Jérôme Havenel

Transactions of the Charles S. Peirce Society: A Quarterly Journal
in American Philosophy, Volume 44, Number 1, Winter 2008,
pp. 86-133 (Article)

Published by Indiana University Press
DOI: 10.1353/csp.0.0001

https://www.researchgate.net/publication/236774797_Peirce%27s_Clarifications_of_Continuity

«Peirce’s meditations on continuity: from transitivity to topology»,

Havenel, J. (2015).

en: Zalemea, Fernando y Oostra, Arnold (eds).

Cuadernos de Sistemática Peirceana. Vol. 7,. Bogotá: Editorial Nomos, pp. 101-126.

Peirce’s Continuous Predicates

FRANCESCO BELLUCCI

Transactions of the Charles S Peirce Society

A Quarterly Journal in American Philosophy · April 2013
DOI: 10.2979/trancharpeirsoc.49.2.178

https://www.researchgate.net/publication/259734578_Peirce%27s_Continuous_Predicates

“Peirce’s Definitions of Continuity”

Potter, V. G.; Shields, S. J. (1977):

Transactions of the Charles Sanders Peirce Society, v. 13, n. 1, pp. 20-34.

Synechism: the Keystone of Peirce’s Metaphysics

Joseph Esposito

http://www.commens.org/encyclopedia/article/esposito-joseph-synechism-keystone-peirce’s-metaphysics

Peirce’s Logic of continuity: a conceptual and mathematical approach to the continuum and the existential graphs.

Zalamea, F. (2012).

Boston: Docent Press.

«Leibniz on Continuity»,

Arthur, R. (1986).

en: Proceedings of the Biennial Meeting of the Philosophy of Science, Science Association, Vol. 1986, Volume One: Contributed Papers, pp. 107-115

«Continuity in Leibniz’s Mature Metaphysics»,

Crockett, T. (May, 1999).

en: Philosophical Studies: An International Journal for Philosophy in the Analytic Tradition, Vol. 94, No. 1/2, Selected Papers Presented at the American Philosophical Association Pacific Division Meeting 1998, pp. 119-138.

«Peirce and Leibniz»,

Fisch, M. (Jul.-Sep. 1972).

en: Journal of the History of Ideas. Vol. 33, No. 3, Festschrift for Philip P. Wiener, pp. 485-496

The idea of continuity in the philosphies of Leibniz and Peirce.

Flórez Restrepo, J. A., & Arias Cardona, J. E. (2022).

Pensamiento. Revista De Investigación E Información Filosófica, 78(298 S. Esp), 841-861. https://doi.org/10.14422/pen.v78.i298.y2022.030

https://revistas.comillas.edu/index.php/pensamiento/article/view/10977

“On Peirce’s Discovery of Cantor’s Theorem.”

Moore, Matthew E. 2007.

Cognitio 8: 223–48.

“Peirce’s Cantor.”

Moore, Matthew E. 2011.

in New Essays on Peirce’s Mathematical Philosophy, ed. Matthew E. Moore. Chicago: Open Court.

“Peirce on Cantor’s Paradox and the Continuum.” 

Myrvold, Wayne C. 1995.

Transactions of the Charles S. Peirce Society 31 (3): 508–41.

PATTERNHOOD, CORRELATION, AND GENERALITY: FOUNDATIONS OF A PEIRCEAN THEORY OF PATTERNS

Jimmy Jericho Aames

Master of Arts Thesis
in the Department of Philosophy
Indiana University
July 2016

https://scholarworks.iupui.edu/bitstream/handle/1805/10896/Thesis%2007052016.pdf?sequence=1

Peirce-Related Papers

Bibliography

Indiana University

https://arisbe.sitehost.iu.edu/menu/library/aboutcsp/ABOUTCSP.HTM

Charles Sanders Peirce

Wikipedia

https://en.wikipedia.org/wiki/Charles_Sanders_Peirce

Peirce’s “Extreme” Realism and Supermultitudinous Conception of Continuity

Jimmy Aames

Indiana University-Purdue University Indianapolis

Department of Philosophy MAE-mail:  jjaames@iupui.edu

2015

https://www.academia.edu/12635422/Peirces_Extreme_Realism_and_Supermultitudinous_Conception_of_Continuity

Peirce on Continuity: Vindication of Universals against Nominalism

Paniel Reyes Cardenas

2014, Hannah, Patricia (Ed),An Anthology of Philosophical Studies 8

https://www.academia.edu/7005464/Peirce_on_Continuity_Vindication_of_Universals_against_Nominalism

Mathematical Structuralism, Continuity and Peirce’s Diagrammatic Reasoning

Paniel Reyes Cardenas

https://www.academia.edu/1540932/Mathematical_Structuralism_Continuity_and_Peirces_Diagrammatic_Reasoning

Bateson and Peirce on the Pattern that Connects and the Sacred

Søren Brier

2008, A Legacy for Living Systems

https://www.academia.edu/725104/Bateson_and_Peirce_on_the_Pattern_that_Connects_and_the_Sacred

Philosophy of Mathematics
Selected Writings
Charles S. Peirce

Edited by
Matthew E. Moore

INDIANA UNIVERSITY PRESS 2010

Bloomington and Indianapolis

Peirce and the Continuum from a Philosophical Point of View.

Zink, J. (2001).

In: Schuster, P., Berger, U., Osswald, H. (eds) Reuniting the Antipodes — Constructive and Nonstandard Views of the Continuum. Synthese Library, vol 306. Springer, Dordrecht.

https://doi.org/10.1007/978-94-015-9757-9_25

https://link.springer.com/chapter/10.1007/978-94-015-9757-9_25

Peirce’s Topical Continuum: A “Thicker” Theory

Jon Alan Schmidt

TRANSACTIONS OF THE CHARLES S. PEIRCE SOCIETY Vol. 56, No. 1 (2020) • doi: 10.2979/trancharpeirsoc.56.1.04

https://philarchive.org/archive/SCHPTC-2

Charles Sanders Peirce and the Principle of Bivalence

Robert Lane

1998

https://www.academia.edu/660658/Charles_Sanders_Peirce_and_the_Principle_of_Bivalence


The genesis of the Peircean continuum

Matthew E. Moore
Transactions of the Charles S. Peirce Society 43 (3):425 – 469 (2007)

Peirce’s topical theory of continuity.

Moore, Matthew E. (2015).

Synthese 192 (4):1-17.

Peirce’s Triadic Logic Revisited

Lane, Robert (1999).

Transactions of the Charles S. Peirce Society 35 (2):284 – 311.

Peirce’s Graphs—The Continuity Interpretation.

Zeman, J. Jay (1968).

Transactions of the Charles S. Peirce Society 4 (3):144 – 154.

Peirce on Continuity and Laws of Nature.

Sfendoni-Mentzou, Demetra (1997).

Transactions of the Charles S. Peirce Society 33 (3):646 – 678.

Questions concerning Peirce’s Agapic Continuity.

Staab, Janice M. (1999).

Transactions of the Charles S. Peirce Society 35 (1):157 – 176.

Peirce’s Definitions of Continuity and the Concept of Possibility.

Noble, N. A. Brian (1989).

Transactions of the Charles S. Peirce Society 25 (2):149 – 174.

Peirce’s Potential Continuity and Pure Geometry.

Hudry, Jean-Louis (2004).

Transactions of the Charles S. Peirce Society 40 (2):229 – 243.

The Continuity of Peirce’s Thought.

Colapietro, Vincent (1999).

The Personalist Forum 15 (2):432-437.

Continuity and Inheritance: Kant’s “Critique of Judgment” and the Work of C. S. Peirce.

Kaag, John (2005).

Transactions of the Charles S. Peirce Society 41 (3):515 – 540.

Peirce’s evolutionary logic: Continuity, indeterminacy, and the natural order.

Alborn, Timothy L. (1989).

Transactions of the Charles S. Peirce Society 25 (1):1 – 28.

Peirce’s mathematical-logical approach to discrete collections and the premonition of continuity.

Rebello Cardoso, Helio (2012).

Journal of Applied Non-Classical Logics 22 (1-2):11-28.

The Peircean Continuum

Vargas, Francisco, and Matthew E. Moore, 

in Stewart Shapiro, and Geoffrey Hellman (eds), The History of Continua: Philosophical and Mathematical Perspectives (Oxford, 2020; online edn, Oxford Academic, 17 Dec. 2020), https://doi.org/10.1093/oso/9780198809647.003.0014, accessed 31 Mar. 2023.

The History of Continua: Philosophical and Mathematical Perspectives 

Shapiro, Stewart, and Geoffrey Hellman (eds), 

(Oxford, 2020; online edn, Oxford Academic, 17 Dec. 2020), https://doi.org/10.1093/oso/9780198809647.001.0001, accessed 31 Mar. 2023.

Peirce’s Topological Concepts

Jérôme Havenel

Draft version of the book chapter published in New Essays on Peirce’s Philosophy of Mathematics, Matthew E. Moore ed, Open Court, 2010.

https://www.academia.edu/25930950/Peirces_Topological_Concepts_Jerome_Havenel

A Category-Theoretic Reading of Peirce’s System: Pragmaticism, Continuity, and Existential Graphs.

Zalamea, Fernando. 2010.

In New Essays on Peirce’s Mathematical Philosophy, edited by Matthew E. Moore, pp. 203–233. Chicago: Open Court.

STEVIN NUMBERS AND REALITY

KARIN USADI KATZ AND MIKHAIL G. KATZ

2012

DISSERTATIONS ON PEIRCE

Indiana University

https://arisbe.sitehost.iu.edu/rsources/dissabs/diss.htm

The Continuum:
History, Mathematics, and Philosophy

by
Teppei Hayashi

A THESIS
DOCTOR OF PHILOSOPHY
GRADUATE PROGRAM IN PHILOSOPHY
UNIVERSITY OF CALGARY
CALGARY, ALBERTA December, 2017

New Essays on Peirce’s Mathematical Philosophy


Matthew E. Moore (ed.), New Essays on Peirce’s Mathematical Philosophy, Open Court, 2010, ISBN 9780812696813.

PEIRCE’S CONTINUUM

METHODOLOGICAL AND MATHEMATICAL APPROACH

FERNANDO ZALAMEA

“Modern Topology and Peirce’s Theory of the Continuum.” 

Johanson, Arnold.

Transactions of the Charles S. Peirce Society 37, no. 1 (2001): 1–12. http://www.jstor.org/stable/40320822.

C. S. Peirce and the Nested Continua Model of Religious Interpretation

Slater, Gary

Oxford Theology and Religion Monographs (Oxford, 2015; online edn, Oxford Academic, 17 Dec. 2015), https://doi.org/10.1093/acprof:oso/9780198753230.001.0001, accessed 2 Apr. 2023.

True Continuity and Analytical Continuity

In Continuity, discontinuity and negotiation of meaning in distributed virtual environments

Patrick John Coppock

https://arisbe.sitehost.iu.edu/menu/library/aboutcsp/coppock/Solomon/Solomon-True.html

C. S. Peirce and the Nested Continua Model of Religious Interpretation


Gary Slater, C. S. Peirce and the Nested Continua Model of Religious Interpretation, Oxford University Press, 2015, 242pp., $110.00 (hbk), ISBN 9780198753230.

Reviewed by Michael L. Raposa, Lehigh University
2016.06.07

Notre Dame Philosophical Reviews

Department of Philosophy
100 Malloy Hall
Notre Dame, IN 46556 USA
ndpr@nd.edu

https://ndpr.nd.edu/reviews/c-s-peirce-and-the-nested-continua-model-of-religious-interpretation/

On the relations between Georg Cantor and Richard Dedekind.

Ferreirós, J. (1993). 

Historia Mathematica, 20, 343-363.

“The mathematical continuum: A haunting problematic,”

de Freitas, Liz (2018)

The Mathematics Enthusiast: Vol. 15 : No. 1 , Article 9.
DOI: https://doi.org/10.54870/1551-3440.1421
Available at: https://scholarworks.umt.edu/tme/vol15/iss1/9

Continuity and infinitesimals.

Bell, J.L. (2013). 

Stanford Encyclopedia of Philosophy. 

https://plato.stanford.edu/entries/continuity/

The continuous, the discrete and the infinitesimal in philosophy and mathematics.

John L. Bell

Switzerland: Springer, 2019, 313+xvii pp,

The Continuous and the Infinitesimal in Mathematics and Philosophy


John Lane Bell
Polimetrica s.a.s., 2005

The Continuum and the Evolution of the Concept of Real Number

John L. Bell

Department of Philosophy

The University of Western Ontario

jbell@uwo.ca

Varieties of Continua: From Regions to Points and Back.

Hellman, G, and S. Shapiro (2018). 

Oxford University Press.

The Continuous and the Discrete: Ancient Physical Theories from a Contemporary Perspective 

White, M. J. (1992). 

Clarendon Press, Oxford.

Varieties of Synechism: Peirce and James on Mind–World Continuity.

Calcaterra, Rosa M. (2011).

Journal of Speculative Philosophy 25 (4):412-424.

Review of Gary Slater, C. S. Pierce and the Nested Continua Model of Religious Interpretation

C. S. Peirce and the Nested Continua Model of Religious Interpretation. Gary Slater. Oxford: Oxford University Press, 2015. 242 pp.

Brandon Daniel-Hughes
John Abbott College

THE JOURNAL OF SCRIPTURAL REASONING

The Continuity of Continuity:
A Theme in Leibniz, Peirce and Quine

Begoña Ilarregui y Jaime Nubiola
Universidad de Navarra

Publicado en Leibniz und Europa, VI. Internationaler Leibniz-Kongress, 361-371.
Gottfried-Wilhelm-Leibniz-Gesellschaft e. V. Hannover., 1994.

https://www.unav.es/users/Articulo13.html

THE ABSOLUTE ARITHMETIC CONTINUUM AND THE UNIFICATION OF ALL NUMBERS GREAT AND SMALL

PHILIP EHRLICH

The Bulletin of Symbolic Logic

Volume 00, Number 0, XXX 0000

Click to access Ehrlich.pdf

DIVERGENT CONCEPTIONS OF THE CONTINUUM IN 19TH AND EARLY 20TH CENTURY MATHEMATICS AND PHILOSOPHY

JOHN L. BELL


Towards a classifification of continuity and on the emergence of generality

Daniel Rosiak
DePaul University, drosiak@depaul.edu

Department of Philosophy
College of Liberal Arts and Social Sciences DePaul University
Chicago,IL

December, 2019

PEIRCE’S PLACE IN MATHEMATICS

BY JOSEPH W. DAUBEN

DEPARTMENT OF HISTORY, HERBERT H. LEHMAN COLLEGE, AND
Ph.D. PROGRAM IN HISTORY, THE GRADUATE CENTER,
THE CITY UNIVERSITY OF NEW YORK, NEW YORK, NY 10036

HISTORIA MATHEMATICA 9 (1982) 311-325

CONTEMPORARY INFINITESIMALIST THEORIES OF CONTINUA AND THEIR LATE 19TH- AND EARLY 20TH-CENTURY FORERUNNERS

PHILIP EHRLICH

‘One, Two, Three:Fundamental Categories of Thought and Nature,

Charles Sanders Peirce

Three Infinitesimalist Theories of Continua

Philip Ehrlich

“The Absolute Arithmetic Continuum and its Peircean Counterpart”

P . Ehrlich,

in New Essays on Peirce’ s Mathematical Philosophy, edited by Matthew Moore, Open Court Press (forthcoming).

Charles S. Peirce’s Idea of Ultimate Reality and Meaning Related to Humanity’s Ultimate Future as seen through Scientific Inquiry

Noel E. Boulting, Mid-Kent College o fHigher and Further Education, Chatham, Kent, England

https://www.utpjournals.press/doi/pdf/10.3138/uram.16.1-2.9

THE SACRED DEPTHS OF NATURE
AN ONTOLOGY OF THE POSSIBLE IN THE PHILOSOPHY OF PEIRCE AND HEIDEGGER

Leon J. Niemoczynski
B.A., East Stroudsburg University, 2001 M.A., West Chester University, 2004

Department of Philosophy
in the Graduate School Southern Illinois University Carbondale May 2009

The Completeness of the Real Line

Matthew E. Moore

Department of Philosophy, Brooklyn College. E–mail: matthewm@brooklyn.cuny.edu

Crítica (Méx., D.F.) vol.39 no.117 Ciudad de México dic. 2007

“Logique et mathématique du Continu chez Charles Sanders Peirce”,

Havenel, Jérôme, 2006,

Doctoral Thesis, École des Hautes Études en Sciences Sociales, Paris.

https://www.theses.fr/2006EHES0079

A Less Simplistic Metaphysics: Peirce’s Layered Theory of Meaning as a Layered Theory of Being

Marc Champagne
Kwantlen Polytechnic University

December 2015

Sign Systems Studies 43(4):523-552
DOI:10.12697/SSS.2015.43A10

https://www.researchgate.net/publication/310446520_A_Less_Simplistic_Metaphysics_Peirce%27s_Layered_Theory_of_Meaning_as_a_Layered_Theory_of_Being

VIRTUAL LOGIC–THE COMBINATORIAL HIERARCHY: ‘ONE, TWO, THREE, INFINITY!’

Author: Kauffman, Louis
Source: Cybernetics & Human Knowing, Volume 19, Number 3, 2012, pp. 83-91(9)
Publisher: Imprint Academic

https://www.ingentaconnect.com/content/imp/chk/2012/00000019/00000003/art00006

6.3 ONE, TWO, THREE … ETERNITY

Subchapter in book

Cyber Semiotics: Why Information is not enough

Soren Brier

Peirce’s Prepunctual Continuum

MATTHEW MOORE

CUADERNOS DE SISTEMÁTICA PEIRCEANA
Número 7 – 2015
CENTRO DE SISTEMÁTICA PEIRCEANA
CSP

Time and the Continuum. An Introduction to the Problem(s)

Marcello Garibbo
University of Siegen

Philosophy Kitchen #13 — Anno 7 — Settembre 2020 — ISSN: 2385-1945 — Il Tempo e il Continuo.

Is Synechism Necessary?

Matthew Moore

Cognitio, Sao Paulo, Vol 14, No 1, 2013

Continuity of Space and Theories of Intersections

from Euclid to Leibniz

Vincenzo De Risi

Brouwer and Weyl: The Phenomenology and mathematics of the intuitive continumm

M Van Atten; D Van Dalen; R Tieszen

Infinitesimals and the continuum

John L. Bell

A formalization of forcing and the unprovability of the continumm Hypothesis

Jesse Michael Han; Floris Van Doorn

Peirce’s Conception of Metaphysics

Joshua David Black

Phd Thesis 2017

Peirce’s Triadic Logic : Continuity, Modality, and L

Odland, Brent C.

MS Thesis, 2020

University of Calgary

on the structure of continua

G T Whyburn

Potential infinity and intuitiontic Logic

Oystein Linnebo, Stewart Shapiro and Geoffrey Hellman

Conceptions of the continuum

Solomon Feferman

2009

the continuum east and west

Peter G Jones

Philosophy Pathways, 185, May 2014

https://philarchive.org/archive/JONTCE

Cauchey’s Continuum

Karin Katz and Mikhail Katz

Dicisigns: Peirce’s Semiotic Doctrine of Propositions

Synthese, Vol 192, No 4, 2015

Real Numbers, Generalizations of the Reals, and Theories of Continua

Time and the continuum

Lambalgen and Pinosio

Indefinite Divisibility

Jeffrey Sanford Russell

Inconsistent Boundaries

Zach Weber and AJ Cotnoir

Peirce’s mathematical logical approach to discrete collections and the premonition of Continuity

Helio Rebello

Cantor, Peirce and the True Continuum

Peirce and Cantor on Continuity

Stephen Gardner

https://www.academia.edu/3721816/Peirce_and_Cantor_on_Continuity

Charles Peirce on the Continuity of Thought

Dinh Huyen My

BS Thesis 2021

Charles University

william James psychology and ontology of continuity

Michela Bella

Toward a clarity of the extreme value theorem

Karin Katz

Mikhail Katz

Taras Kudryk

Time, Modality and three valued logic in Peirce and Lukasiewicz

Jose Renato Salatiel

Continuity and Mathematical Ontology in Aristotle

Keren Wilson Shatalov

The classical Continuum without points

Geoffrey Hellman and Stewart Shapiro

what is Categorical Structuralism?

Geoffrey Hellman

euclid’s geometry is just in our mind, rather than describing the real world

Arturo Tozzi

James Peters

The logic of Kant’s Temporal Continuum

Riccardo Pinosio

Varieties of Logic

Stewart Shapiro

Philosophical Aspects of Peirce’s Trivalent Logic

Jose Renato Salatiel

Philosophical problem of relations according to Peirce: Alliances towards an ontology of relations regarding two aspects of Synechism

Helio Rebello Cardoso Jr

Thein Spinelli Farraz

Are points (Necessarily) unextended?

Philip Ehrlich

C. S. Peirce and Aristotle on Time

Demetra Sfendoni-Mentzou

Applied Communicology in Org PR and R&D: Peirce on Synechism, Fuller on Synergetics, Gordon on Synectics, and Alinsky on Socialism

Richard Lanigan

The Continuity Debate: Dedekind, Cantor, Du Bois-Reymond, and Peirce on Continuity and Infinitesimals


Alison Walsh, Benjamin Lee Buckley
Docent Press, 2012

‘Hermann Weyl on intuition and the continuum’.

Bell, John L. (2000).

Philosophia Mathematica 8 (3):259-273.

Click to access Hermann%20Weyl.pdf

A Primer of Infinitesimal Analysis.

Bell, John L. (1998).

Cambridge University Press.

The Continuum: A Critical Examination of the Foundations of Analysis 

Weyl, Hermann, 

Dover (1987)

Brouwer and Weyl: The Phenomenology and Mathematics of the Intuitive Continuumt

M. Atten, D. Dalen, R. Tieszen
Published 1 April 2001

https://www.semanticscholar.org/paper/Brouwer-and-Weyl%3A-The-Phenomenology-and-Mathematics-Atten-Dalen/bde9d5572ce8952be18ff3abc9f6160be7d768d4

Hermann Weyl’s intuitionistic mathematics. 

D. van Dalen.

Bulletin of Symbolic Logic, 1:145–169, 1995.

Mystic, geometer, and intuitionist. The life of L.E.J. Brouwer.

1: The dawning revolution.

D. van Dalen. 

Clarendon Press, Oxford, 1999.

The Continuity of Being: C.S. Peirce’s Philosophy of Synechism

by Brian Kemple

Epoché Philosophy Monthly

Issue #19 January 2019

https://epochemagazine.org/19/the-continuity-of-being-c-s-peirces-philosophy-of-synechism/

The Continuity of Peirce’s Thought

by Kelly A. Parker

Book 1998

The Concept of Continuity in Charles Peirce’s Synechism.

Benedict, George Allen (1973).

Dissertation, State University of New York at Buffalo

Peirce’s topical theory of continuity

Authors: Matthew E. Moore

April 2013 Synthese 192(4)

DOI:10.1007/s11229-013-0337-6

https://www.researchgate.net/publication/272036759_Peirce%27s_topical_theory_of_continuity

“Peirce’s logic of continuity: Existential graphs and non-Cantorian continuum.” 

Fernando Zalamea. 

Rev. Mod. Log. 9 (1-2) 115 – 162, November 2001 – November 2003.

https://projecteuclid.org/journals/review-of-modern-logic/volume-9/issue-1-2/Peirces-logic-of-continuity–Existential-graphs-and-non-Cantorian/rml/1081173838.full

Peirce’s Logic of Continuity: A Conceptual and Mathematical Approach

Fernando Zalamea

Book 2012

ISBN/EAN13: 0983700494 / 9780983700494

One, two, three . . . continuity: C.S. Peirce and the nature of the continuum

Author: Robertson, R.
Source: Cybernetics & Human Knowing, Volume 8, Numbers 1-2, 1 January 2001, pp. 7-24(18)

https://www.ingentaconnect.com/content/imp/chk/2001/00000008/f0020001/74?crawler=true

Does Continuity Allow For Emergence?

An Emergentist Reading Of Peirce’s Evolutionary Thought

Maria Regina Brioschi

https://doi.org/10.4000/ejpap.1647

https://journals.openedition.org/ejpap/1647

Peirce´s pragmatic meanings of mind and synechism

Lucia Santaella 
Full professor-Graduate program in Communication and Semiotics São Paulo Catholic University; member of the Advisory Board of the Peirce Edition Project 

lbraga@pucsp.br

https://www.pucsp.br/~lbraga/epap_peir4.htm

Feeling Our Way Forward: Continuity and Discontinuity Within the Cosmic Process, 

Joseph A. Bracken S.J. (2010) 

Theology and Science, 8:3, 319-331, DOI: 10.1080/14746700.2010.492625

Continuity and Inheritance: Kant’s Critique of Judgment and the Work of C.S. Peirce

John Kaag

Varieties of Synechism: Peirce and James on Mind–World Continuity. 

Rosa M. Calcaterra;

The Journal of Speculative Philosophy 1 October 2011; 25 (4): 412–424. doi: https://doi.org/10.5325/jspecphil.25.4.0412

Peirce’s Philosophical Perspectives. 

8 Peirce on Continuity

Potter, Vincent G. 

New York: Fordham University Press, 2019., doi:10.1353/book.67375.

https://muse.jhu.edu/pub/93/oa_monograph/chapter/2379541

Diagrams, Visual Imagination, and Continuity in Peirce’s Philosophy of Mathematics

by Vitaly Kiryushchenko

2023

THEORIES OF CONTINUITY AND INFINITESIMALS: FOUR PHILOSOPHERS OF THE NINETEENTH CENTURY

Lisa Keele

Doctor of Philosophy Thesis
in the Department of Philosophy,
Indiana University
May 2008

ProQuest Dissertations Publishing,  2008. 3319910.

TWO NEW GESTURES
ON PEIRCE’S CONTINUUM AND THE EXISTENTIAL GRAPHS

Fernando Zalamea (Universidad Nacional de Colombia)

77 Lebenswelt, 13 (2018)

Two New Gestures
on Peirce’s Continuum
and the Existential Graphs: Plurality of Pragmatic Imagination

Fernando Zalamea
Departamento de Matemáticas Universidad Nacional de Colombia

Associazione Pragma – 10th Anniversary Università degli Studi di Milano
October 18 2017

Click to access Milano(Ottobre2017).pdf

‘Logic of Relations and Diagrammatic Reasoning: Structuralist Elements in the Work of Charles Sanders Peirce’, 

Carter, Jessica, 

in Erich H. Reck, and Georg Schiemer (eds), The Prehistory of Mathematical Structuralism (New York, 2020; online edn, Oxford Academic, 18 June 2020), https://doi.org/10.1093/oso/9780190641221.003.0010, accessed 12 Apr. 2023.

https://academic.oup.com/book/41041/chapter/349349072

Peirce on continuity and his critique of Cantor and Dedekind.

Dauben, J. W. (1981).

In K. L. Ketner, J. M. Ransdell, C. Eisele, M. H. Fisch, and C. S. Hardwick (eds.), Graduate Studies Texas Tech University, pp. 93-98. Texas Tech Press.

The Peircean Continuum

Francisco Vargas

Matthew E. Moore

In book: The History of Continua (pp.328-346)

December 2020
DOI:10.1093/oso/9780198809647.003.0014

Advances in Peircean Mathematics

The Colombian School

Edited by: Fernando Zalamea
Volume 7 in the series Peirceana
https://doi.org/10.1515/9783110717631

https://www.degruyter.com/document/doi/10.1515/9783110717631/html

Charles Peirce and Modern Science

T L Short

Cambridge University Press
Online publication date: October 2022
Print publication year: 2022
Online ISBN: 9781009223508
DOI: https://doi.org/10.1017/9781009223508

https://www.cambridge.org/core/books/charles-peirce-and-modern-science/A61CC6B9EBE0259AD8D83B2B85A82511

Peirce’s Theory of Signs

T L Short

Publisher: Cambridge University Press
Online publication date: July 2009
Print publication year: 2007
Online ISBN: 9780511498350
DOI: https://doi.org/10.1017/CBO9780511498350

The Practical Peirce: An Introduction to the Triadic Continuum Implemented as a Computer Data Structure

Author John Zuchero
Publisher iUniverse, 2007
ISBN 0595441122, 9780595441129

The Triadic Continuum is the invention of Jane Mazzagatti, a mathematician and software engineer. Mazzagatti came upon the idea for this new computer data structure, which is based on the work of Charles Peirce, while working on a project for Unisys Corporation. This same structure has proven commercially valuable in the efficient way it stores and allows for the analysis of large datasets. However, while learning about the nature of the structure she discovered more far-reaching implications to areas other than computer science. Charles Peirce was fascinated with how the mind reasons and with all of the scientific and philosophical implications of the mechanisms of how the brain records experience, constructs memories, and accesses previously stored experience and knowledge. Mazzagatti believes that she has rediscovered the structure of the Triadic Continuum, which is the foundation of many of Peirce’s key theories dealing with human reasoning and the logic of thought.
In this book the author, who worked with Mazzagatti writing patents for the invention, explains how this structure is unlike any other computer data structure or type of Artificial Intelligence-but more importantly why this structure may very well be a model for human cognition.

Platonic and Archimedean Solids

Platonic and Archimedean Solids

Source: The Stars Above Us: Regular and Uniform Polytopes up to Four Dimensions

Source: The History of Mathematics From the Egyptians to Archimedes

Source: Platonic Solids, or, the power of counting

Key Terms

  • Prapanch (Five Fold)
  • Panch (Five)
  • 5 Platonic Solids
  • 14 Archimedean Solids
  • Catalan Solids
  • Regular Convex Polyhedra
  • Semi Regular Convex Polyhedra
  • Kepler-Poinsot Polyhedra
  • 4D Polytopes
  • Five Elements
  • 5 Kosh (Sheaths)
  • 14 Lok (Levels, Realms)
  • 7 Upper Worlds
  • 7 Under Worlds
  • 7 Chakras
  • 5 Continents
  • 7 Seas
  • Hierarchy Theory
  • Mount Meru
  • Nested Platonic Solids
  • Soccer Ball Geometry
  • Uniform Polyhedra
  • Johnson Solids
  • Goldberg Polyhedra
  • Albrechet Durer
  • Leonardo da Vinci
  • Johannes Kepler
  • Fra Luca Bartolomeo de Pacioli (ca.1447–1517)
  • Buckminster Fuller
  • Fullerenes
  • Virus Geometry
  • Symmetry
  • Polygons
  • Max Brückner
  • H.S.M. Coxeter
  • George W. Hart

Five Platonic Solids

  • Five Platonic Solids
    • Tetrahedron
    • Octahedron
    • Cube
    • Icosahedron
    • Dodecahedron
  • Five Elements
    • Fire – Tetrahedron
    • Air – Octahedron
    • Earth – Cube
    • Space – Dodecahedron
    • Water – Icosahedron
  • Five Sense Organs
    • Tongue -Taste – Water
    • Eyes – Form – Fire
    • Ears – Sound – Space
    • Nose – Smell –  Earth
    • Skin – Touch – Air
  • Five Senses
    • Hearing
    • Sight
    • Touch
    • Taste
    • Smell

Source: Polyhedra: Plato, Archimedes, Euler

Source: Polyhedra: Plato, Archimedes, Euler

Source: Polyhedra: Plato, Archimedes, Euler

Source: Sacred Geometry and the Platonic Solids

Source: Sacred Geometry and the Platonic Solids

Source: The Platonic solids and fundamental tests of quantum mechanics

Source: The Platonic solids and fundamental tests of quantum mechanics

Source: The Platonic solids and fundamental tests of quantum mechanics

Source: Vertex Configurations: Platonic Solids, Archimedean Solids, And Johnson Solids

Source: Platonic Solids (Regular polytopes in 3D)

Source: Platonic Solids (Regular polytopes in 3D)

Source: Platonic Solids (Regular polytopes in 3D)

Source: Platonic Solids (Regular polytopes in 3D)

14 Archimedean Solids

  • Rhombicuboctahedron
  • Rhombicosidodecahedron
  • Cuboctahedron
  • Icosidodecahedron
  • Truncated Tetrahedron
  • Truncated Cube
  • Truncated Octahedron
  • Truncated Dodecahedron
  • Truncated Icosahedron
  • Truncated Cuboctahedron
  • Truncated Icosidodecahedron
  • Snub Cube
  • Snub Dodecahedron
  • Pseudorhombicuboctahedron ?

Source: Polyhedra: Plato, Archimedes, Euler

Source: Vertex Configurations: Platonic Solids, Archimedean Solids, And Johnson Solids

Source: Vertex Configurations: Platonic Solids, Archimedean Solids, And Johnson Solids

Source: The Stars Above Us:
Regular and Uniform Polytopes up to Four Dimensions

Catalan Solids

Source: Catalan Solids

Kepler-Poinsot Solid

Source: Kepler Poinsot Solids

Source: The Stars Above Us:
Regular and Uniform Polytopes up to Four Dimensions

Johnson Solids

Source: Johnson Solid

Source: Vertex Configurations: Platonic Solids, Archimedean Solids, And Johnson Solids

Source: Vertex Configurations: Platonic Solids, Archimedean Solids, And Johnson Solids

Source: Max Brücknerʼs Wunderkammer of Paper Polyhedra

Source: Max Brücknerʼs Wunderkammer of Paper Polyhedra

Platonic Solids and Plato’s Theory of Everything

Source: Platonic Solids and Plato’s Theory of Everything
 
The Socratic tradition was not particularly congenial to mathematics, as may be gathered from Socrates’ inability to convince himself that 1 plus 1 equals 2, but it seems that his student Plato gained an appreciation for mathematics after a series of conversations with his friend Archytas in 388 BC. One of the things that most caught Plato’s imagination was the existence and uniqueness of what are now called the five “Platonic solids”. It’s uncertain who first described all five of these shapes – it may have been the early Pythagoreans – but some sources (including Euclid) indicate that Theaetetus (another friend of Plato’s) wrote the first complete account of the five regular solids. Presumably this formed the basis of the constructions of the Platonic solids that constitute the concluding Book XIII of Euclid’s Elements. In any case, Plato was mightily impressed by these five definite shapes that constitute the only perfectly symmetrical arrangements of a set of (non-planar) points in space, and late in life he expounded a complete “theory of everything”, in the treatise called Timaeus, based explicitly on these five solids. Interestingly, almost 2000 years later, Johannes Kepler was similarly fascinated by these five shapes, and developed his own cosmology from them.
 
To achieve perfect symmetry between the vertices, it’s clear that each face of a regular polyhedron must be a regular polygon, and all the faces must be identical. So, Theaetetus first considered what solids could be constructed with only equilateral triangle faces. If only two triangles meet at a vertex, they must obviously be co-planar, so to make a solid we must have at least three triangles meeting at each vertex. Obviously when we have arranged three equilateral triangles in this way, their bases form another equilateral triangle, so we have a completely symmetrical solid figure with four faces, called the tetrahedron, illustrated below.
 
 
On the other hand, if we make four triangles meet at a vertex, we produce a square-bottomed pyramid, and we can obviously put two of these together, base to base, to give a completely symmetrical arrangement of eight triangular faces, called the octahedron, shown below.
 
 
Next, we can make five equilateral triangles meet at a point. It’s less obvious in this case, but if we continue this pattern, adding equilateral triangles so that five meet at each vertex, we arrive at a complete solid with 20 triangular faces. This is called the icosahedron, shown below.
 
 
Now, we might try putting six equilateral triangles together at a point, but the result is a planar arrangement of triangles, so it doesn’t give a finite solid. I suppose we could regard this as a Platonic solid with an infinite radius, which might have been useful in Plato’s cosmology, but it doesn’t seem to have been viewed this way. Perhaps this is not surprising, considering the well-known aversion of the ancient Greek mathematicians to the complete infinity. In any case, we clearly can’t construct any more perfectly symmetrical solids with equilateral triangle faces, so we must turn to other possible face shapes.
 
The next regular polygon shape is the square, and again we find that putting just two squares together does not yield a solid angle, so we need at least three squares to meet at each vertex. Putting three squares together we see that we can add three more to give the perfect solid with six faces, called the hexahedron (also known as the cube). This is shown below.
 
 
If we try to make four square faces meet at each vertex, we have another plane surface (giving another “infinite Platonic solid”), so clearly this is the only finite perfectly symmetrical solid with square faces.
 
Proceeding to pentagonal (five-sided) faces, we find that if we put together 12 pentagons so that three meet at each vertex, we arrive at the fifth Platonic solid, called the dodecahedron, illustrated below.
 
 
It isn’t self-evident that 12 identical regular pentagons would come together perfectly like this to form a closed solid, but it works, as Theaetetus proved and as Euclid demonstrates at the conclusion of The Elements. Of course, if we accept that the icosahedron works, then the dodecahedron automatically follows, because these two shapes are “duals” of each other. This means that the icosahedron has 20 faces and 12 vertices, whereas the dodecahedron has 12 faces and 20 vertices, and the angular positions of the face centers of one match up with the positions of the vertices of the other. Thus, once we have the icosahedron, we can just put a dot in the center of each face, connect the dots, and viola!, we have a dodecahedron. Similarly, the cube and the octahedron are duals of each other. Also, the tetrahedron is the dual of itself (so to speak).
 
Clearly it’s impossible for four (or more) pentagonal faces to meet at a vertex, because they subtend more than 360 degrees. For hexagonal (six-sided) faces, three hexagons meeting at a point constitute another “infinite solid”, i.e., a planar surface. It’s also obvious that no higher-order polygon can yield a solid, so the five solids already mentioned – tetrahedron, hexahedron, octahedron, icosahedron, and dodecahedron – are the only regular polyhedrons. Theaetetus not only proved that these solids exist, and that they are the only perfectly symmetrical solids, he also gave the actual ratios of the edge lengths E to the diameters D of the circumscribing spheres for each of these solids. This is summarized in Propositions 13 through 17 of Euclid’s Elements.
 
 
In Timaeus, Plato actually chose to constitute each of these solids from right triangles, which played the role of the “sub-atomic particles” in his theory of everything. In turn, these triangular particles consisted of the three legs (which we might liken to quarks), but these legs were ordinarily never separated. The right triangles that he chose as his basis particles were of two types. One is the “1,1,” isosceles triangle formed by cutting a square in half, and the other is the “1,2,” triangle formed by cutting an equilateral triangle in half. He used these to construct the faces of the first four solids, but oddly enough he didn’t just put two together, he used six “1,2, triangles to make a triangular face, and four “1,1,” triangles to make a square face, as shown below.
 
 
Of course, it’s not possible to build a pentagon from these two basic kinds of right triangles, and Plato doesn’t actually elaborate on how the faces of the dodecahedron are to be constructed, but from other sources we know that he thought each face should be composed of 30 right triangles, probably as shown on the right-hand figure above, so that the dodecahedron consisted of 360 triangles. The tetrahedron, octahedron, and icosahedron consisted of 24, 48, and 120 triangles (of the type 1,2,), respectively, and the hexahedron consisted of 24 triangles (of the type 1,1,).
 
Now, if the basic triangles were the subatomic particles, Plato regarded the solids as the “atoms” or corpuscles of the various forms of substance. In particular, he made the following identifications
 
 
The idea that all the constituents of nature consist of mixtures of a small number of “elements”, and in particular the selection of the four elements of earth, water, air, and fire, is attributed to an earlier Greek philosopher Empedocles of Agrigentum (495-435 BC). Empedocles believed that although these elements (which he called “the roots of all things”) could be mixed together in various proportions, the elements themselves were inviolable, and could never be changed. In contrast, one of the intriguing aspects of Plato’s theory was that he believed it was possible for the subatomic particles to split up and re-combine into other kinds of atoms. For example, he believed that a corpuscle of liquid, consisting of 120 “type 1” triangles, could be broken up into five corpuscles of plasma, or into two corpuscles of gas and one of plasma. Also, he believed that the “smaller” corpuscles could merge into larger corpuscles, so that (for example) two atoms of plasma could merge and form a single atom of gas. However, since the basic triangles making up “earth” (cubes) are dissimilar to those of the other forms of substance, he held that the triangles comprising cubes cannot be combined into any of the other shapes. If a particle of earth happened to be broken up into its constituent triangles, they will “drift about – whether the breaking up within fire itself, or within a mass of air or water – until its parts meet again somewhere, refit themselves together and become earth again”.
 
When Plato asserts that the [1,1,] triangles cannot combine into anything other than a cube, it’s conceivable that he was basing this on something more that just the geometric dissimilarity between this triangle and the [1,2,] triangle. He might also have had in mind some notion of the incommensurability of the magnitudes  and , not only with the unit 1, but with each other. Indeed the same Theaetetus who gave the first complete account of the five “Platonic” solids is also remembered for recognizing the general fact that the square root of any non-square integer is irrational, which is to say, incommensurable with the unit 1. It isn’t clear whether Theaetetus (or Plato) knew that two square roots such as  and  are also incommensurable with each other, but Karl Popper (in his anti-Plato polemic “The Free Society and its Enemies”) speculated that this might have been known, and that Plato’s choice of these two triangles as the basic components of his theory was an attempt to provide a basis (in the mathematical sense) for all possible numbers. In other words, Popper’s idea is that Plato tentatively thought the numbers 1, , and  are all mutually incommensurable, but that it might be possible to construct all other numbers, including , π, etc., as rational functions of these.
 
Of course, Book X of Euclid’s Elements (cf. Prop 42) dashes this hope, but it’s possible that the propositions recorded there were developed subsequent to Plato’s time. Popper also makes much of the numerical coincidence that + is approximately equal to π, and speculates that Plato might have thought these numbers were exactly equal, but this doesn’t seem credible to me. For one thing, it would give a means of squaring the circle, which would certainly have been mentioned if anyone had believed it. More importantly, the basic insight of Theaetetus was in recognizing the symmetry of all the infinitely many irrational square roots, and it just doesn’t seem likely that he (or Plato) would have been misled into supposing that just two of them (along with the unit 1) could form the basis for all the others. It’s a very unnatural idea, one that would not be likely to occur to a mathematician. (Still, an imaginative interpreter could probably discern correspondences between the four basis vectors of “The Platonic Field“, i.e., numbers of the form A + B+ C + D and Plato’s four elements, not to mention the components of Hamilton’s quaternions.)
 
It’s also interesting that Plato describes the “1,1,” triangle as the most “stable”, and the most likely to hold its shape, thus accounting for the inert and unchanging quality of the solid elements. He didn’t elaborate on his criterion for “stability”, although we can imagine that he had in mind the more nearly equal lengths of the edges, being closer to equilibrium. On the other hand, this would suggest that the equilateral triangle (which is the face of Plato’s “less stable” elements) was highly stable. Plato made no mention of the fact that the cube is actually the only unstable Platonic solid, in the sense of rigidity of its edge structure. In addition, the cube is the only Platonic solid that is not an equilibrium configuration for its vertices on the surface of a sphere with respect to an inverse-square repulsion. Nevertheless, the idea of stability of the sub-atomic structure of solid is somewhat akin to modern accounts of the stability of inert elements. 
 
We can also discern echoes of Plato’s descriptions in Isaac Newton’s corpuscular theory. Newton’s comments about the “sides” of light particles are very reminiscent of Plato’s language in Timaeus. It’s also interesting to compare some passages in Timaeus, such as
 
And so all these things were taken in hand, their natures being determined by necessity in the way we’ve described,  by the craftsman of the most perfect and excellent among things that come to be…
 
with phrases in Newton’s Principia, such as
 
…All the diversity of created things, each in its place and time, could only have arisen from the ideas and the will of a necessarily existing being… 
 
…all phenomena may depend on certain forces by which the particles of bodies…either are impelled toward one another and cohere in regular figures, or are repelled from one  another and recede…
 
…if anyone could work with perfect exactness, he would be the most perfect mechanic of all…
 
Plato explicitly addressed the role of necessity in the design of the universe (so well exemplified by the five and only five Platonic solids), much as Einstein always said that what really interested him was whether God had any choice in the creation of the world. But Plato was not naive. He wrote
 
Although [God] did make use of the relevant auxiliary causes, it was he himself who gave their fair design to all that comes to be. That is why we must distinguish two forms of cause, the divine and the necessary. First, the divine, for which we must search in all things if we are to gain a life of happiness to the extent that our nature allows, and second, the necessary, for which we must search for the sake of the divine. Our reason is that without the necessary, those other objects, about which we are serious, cannot on their own be discerned, and hence cannot be comprehended or partaken of in any other way.
 
The fifth element, i.e., the quintessence, according to Plato was identified with the dodecahedron. He says simply “God used this solid for the whole universe, embroidering figures on it”. So, I suppose it’s a good thing that the right triangles comprising this quintessence are incommensurate with those of the other four elements, since we certainly wouldn’t want the quintessence of the universe to start transmuting into the baser substances contained within itself!
 
Timaeus contains a very detailed discussion of virtually all aspects of physical existence, including biology, cosmology, geography, chemistry, physics, psychological perceptions, etc., all expressed in terms of these four basic elements and their transmutations from one into another by means of the constituent triangles being broken apart and re-assembled into other forms. Overall it’s a very interesting and impressive theory, and strikingly similar in its combinatorial (and numerological) aspects to some modern speculative “theories of everything”, as well as expressing ideas that have obvious counterparts in the modern theory of chemistry and the period table of elements, and so on.
 
Timaeus concludes
 
And so now we may say that our account of the universe has  reached its conclusion. This world of ours has received and  teems with living things, mortal and immortal. A visible  living thing containing visible things, and a perceptible God, the image of the intelligible Living Thing. Its grandness,  goodness, beauty and perfection are unexcelled. Our one  universe, indeed, the only one of its kind, has come to be.
 
The speculative details of Plato’s “account of the universe” are not very satisfactory from the modern point of view, but there’s no doubt that – at least in its scope and ambition as an attempt to represent “all that is” in terms of a small number of simple mathematical operations – Plato’s “theory of everything” left a lasting impression on Western science.
 
Return to MathPages Main Menu

Kepler’s Mysterium Cosmographicum

Source: https://en.wikipedia.org/wiki/Platonic_solid

Source: Kepler’s Polyhedra

Source: Kepler’s Polyhedra

Source: Kepler’s Polyhedra

Source: Platonic Solids, or, the power of counting

Six (6) 4D Polytopes

Source: 4d-polytopes described by Coxeter diagrams and quaternions

Discovery of the Platonic solids; tetrahedron, cube, octahedron, icosahedron and dodecahedron dates back to the people of Scotland lived 1000 years earlier than the ancient Greeks and the models curved on the stones are now kept in the Ashmolean Museum at Oxford [1]. Plato associated tetrahedron with fire, cube with earth, air with octahedron, and water with icosahedron. Archimedes discovered the semi-regular convex solids and several centuries later they were rediscovered by the renaissance mathematicians. By introducing prisms and anti-prisms as well as four regular non-convex polyhedra, Kepler completed the work in 1620. Nearly two centuries later, in 1865, Catalan constructed the dual solids of the Archimedean solids now known as Catalan solids [2]. Extensions of the platonic solids to 4D dimensions have been made in 1855 by L. Schlaffli [3] and their generalizations to higher dimensions in 1900 by T.Gosset [4]. Further important contributions are made by W. A. Wythoff [5] among many others and in particular by the contemporary mathematicians H.S.M. Coxeter [6] and J.H. Conway [7].

The 3D and 4D convex polytopes single out as compared to the polytopes in higher dimensions. The number of Platonic solids is five in 3D and there exist six regular polytopes in 4D contrary to the higher dimensional cases where there exist only three platonic polytopes which are the generalizations of tetrahedron, octahedron and cube to higher dimensions. The Platonic and Archimedean solids [8] as well as the Catalan solids [9] can be described with the rank-3 Coxeter groupsW(A3),W(B3) and W(H3).

The 4D polytopes are described by the rank-4 Coxeter groups W(A4 ), W(B4 ), W(H4 ) and the group (F4 ).

Source: The Stars Above Us:
Regular and Uniform Polytopes up to Four Dimensions

Truncated Truncated Dodecahedron and Truncated Truncated Icosahedron Spaces

Source: Truncated Truncated Dodecahedron and Truncated Truncated Icosahedron Spaces

Source: Truncated Truncated Dodecahedron and Truncated Truncated Icosahedron Spaces

Books

My Related Posts

Indra’s Net: On Interconnectedness

Shape of the Universe

Geometry of Consciousness

Indira’s Pearls: Apollonian Gasket, Circle and Sphere Packing

Cantor Sets, Sierpinski Carpets, Menger Sponges

Interconnected Pythagorean Triples using Central Squares Theory

Cosmic Mirror Theory

Consciousness of Cosmos: A Fractal, Recursive, Holographic Universe

Mind, Consciousness and Quantum Entanglement

Process Physics, Process Philosophy

Law of Dependent Origination

On Synchronicity

The Great Chain of Being

Hierarchy Theory in Biology, Ecology and Evolution

The Hidden Geometry of Trade Networks

Networks and Hierarchies

Multiplex Financial Networks

Shapes and Patterns in Nature

Key Sources of Research

Polyhedra V1.0

by Gian Marco Todesco

A Java applet for creating Nested Platonic Solids. I have not yet seen anything better than this applet.

http://www.toonz.com/personal/todesco/java/polyhedra/theApplet.html

PLATONIC SOLIDS AND A THEORY OF EVERYTHING

The Topology and Combinatorics of Soccer Balls

When mathematicians think about soccer balls, the number of possible designs quickly multiplies

Dieter Kotschick

American Scientist, Volume 94, page 350

Platonic Solids

Paul Calter at Dartmouth

https://math.dartmouth.edu/~matc/math5.geometry/unit6/unit6.html

A Beginner’s Guide to Constructing the Universe

Schneider, Michael, 

Harper Perennial, 1994

A Fuller Explanation: The Synergetic Geometry of R. Buckminster Fuller

Edmondson, Amy, 

Burkhauser Boston, 1987

5. Graph theory and platonic solids

Fine, Benjamin, Gaglione, Anthony, Moldenhauer, Anja, Rosenberger, Gerhard and Spellman, Dennis.

Geometry and Discrete Mathematics: A Selection of Highlights, Berlin, Boston: De Gruyter, 2018, pp. 101-134. https://doi.org/10.1515/9783110521504-005

https://www.degruyter.com/document/doi/10.1515/9783110521504-005/pdf

Platonic Solids

https://en.wikipedia.org/wiki/Platonic_solid

Platonic Solids, or, the power of counting

Keith Jones

Pi Mu Epsilon Induction SUNY Oneonta April 2017

Click to access pimuepsilon2017.pdf

Platonic Solids and Plato’s Theory of Everything

https://www.mathpages.com/home/kmath096/kmath096.htm

Geometric, Algebraic and Topological Connections in the Historical Sphere of the Platonic Solids

A thesis submitted in partial fulfillment of the requirements for the degree of
Master of Science in Mathematics.

James Adam Smith

University of Nevada, Reno, 2012

Dodecahedrane-The chemical transliteration of Plato’s universe ( A Review )

LEO A. PAQUETTE 

Evans Chemical Laboratories,The Ohio State University, Columbus, Ohio 43210

Communicated by Daniel E. Koshlond, Jr., April 26, 1982

Proc.NatL Acad, Sci. USA Vol.79, p. 4495-4500, July 1982

https://www.pnas.org/doi/pdf/10.1073/pnas.79.14.4495

4d-polytopes described by Coxeter diagrams and quaternions

Mehmet Koca 2011

J. Phys.: Conf. Ser. 284 012040

https://iopscience.iop.org/article/10.1088/1742-6596/284/1/012040/pdf

Article 40: Geometry – The Platonic Solids – Part 1 – Introduction

Cosmic Core

Number

Cosmic Core

Sacred Geometry: The Geometry of Life, Matter, Consciousness, Space & Time

Cosmic Core

18 SYMMETRY OF POLYTOPES AND POLYHEDRA

Egon Schulte

Click to access chap18.pdf

It’s a Long Way to the Stars
or, The Sorry State of Polyhedron Theory Today

Guy’s Polyhedra Pages

http://www.steelpillow.com/polyhedra/LongWay.html

Study of Plasmonic Resonances on Platonic Solids

Dimitrios C. Tzarouchis, Pasi Ylä-Oijala, Ari Sihvola

First published: 28 October 2017

https://doi.org/10.1002/2017RS006378

https://agupubs.onlinelibrary.wiley.com/doi/full/10.1002/2017RS006378

Universe as Geometry : discovery of polyhedra

Published on Jun 20, 2016

Platonic Solids Revisited

Posted on September 2, 2012 by Suresh Emre

Euler’s formula and Platonic solids

Name: David Clark, Kelsey Kyllo, Kurt Maugerle, Yue Yuan Zhang

Course Number: Math 445

Professor: Julia Pevtsova

Date: 2013/06/03

Platonic Solids: The Language of the Universe

By David Mcconaghay
December 20, 2019

https://www.gaia.com/article/platonic-solids

The Platonic Solids: a Three-Dimensional Textbook

Martin Levin
604 Winona Court
Silver Spring, MD, 20902, USA

E-mail: mdlevin_public@msn.com

Proceedings of Bridges 2015: Mathematics, Music, Art, Architecture, Culture

PLATONIC SOLIDS AND A THEORY OF EVERYTHING

A 10-Dimensional Jewel

Carlo H. Séquin
CS Division, University of California, Berkeley

E-mail: sequin@cs.berkeley.edu

Platonic and Archimedean geometries in multicomponent elastic membranes

Graziano Vernizzi, Rastko Sknepnek, and Monica Olvera de la Cruz

m-olvera@northwestern.edu


Edited by L. Mahadevan, Harvard University, Cambridge, MA, and accepted by the Editorial Board February 8, 2011 (received for review August 30, 2010)

February 28, 2011
108 (11) 4292-4296
https://doi.org/10.1073/pnas.1012872108

https://www.pnas.org/doi/10.1073/pnas.1012872108

Vertex Configurations: Platonic Solids, Archimedean Solids, And Johnson Solids

Posted on May 10th, 2019 by kramer

http://mathletenation.com/content/vertex-configurations-platonic-solids-archimedean-solids-and-johnson-solids

Some Random Thoughts about the Occult Correspondences of the Platonic
Solids and Their Symmetries

By Anders Sandberg

http://www.aleph.se/Nada/weirdness/polyhedr.txt

Platonic and
Archimedean Polyhedra

https://www.friesian.com/polyhedr.htm

Platonic & Archimedean Solids: The Geometry of Space

Daud Sutton 2002

Wooden Book

New York, NY. Walker and Company.

Plato’s Error and a Mean Field Formula for Convex Mosaics

Gabor Domokos
Budapest University of Technology and Economics

Zsolt Lángi

Budapest University of Technology and Economics

August 2019 Axiomathes 32(1)
DOI:10.1007/s10516-019-09455-w


https://www.researchgate.net/publication/335132644_Plato’s_Error_and_a_Mean_Field_Formula_for_Convex_Mosaics

Platonic Solids (Regular polytopes in 3D)

Written by Paul Bourke
December 1993

http://paulbourke.net/geometry/platonic/

http://paulbourke.net/geometry/hyperspace/

TOPOLOGY AND THE PLATONIC SOLIDS

A Thesis
by
Taylor R. Brand
June 2012

Fourth class of convex equilateral polyhedron with polyhedral symmetry related to fullerenes and viruses

Stan Schein stan.schein@gmail.com and James Maurice Gayed


Edited by Patrick Fowler, The University of Sheffield, Sheffield, United Kingdom, and accepted by the Editorial Board January 7, 2014 (received for review June 10, 2013)
February 10, 2014
111 (8) 2920-2925
https://doi.org/10.1073/pnas.1310939111

https://www.pnas.org/doi/full/10.1073/pnas.1310939111

https://phys.org/news/2014-02-years-mathematicians-class-solid.html

The Platonic solids and fundamental tests of quantum mechanics

Armin Tavakoli and Nicolas Gisin
Département de Physique Appliquée, Université de Genève, CH-1211 Genève, Switzerland

Polyhedra: Plato, Archimedes, Euler

Robert L. Benedetto

Amherst College

MathPath at Mount Holyoke College

Tuesday, July 15, 2014

The Stars Above Us:
Regular and Uniform Polytopes up to Four Dimensions

Allen Liu

Platonic Solids

https://archive.lib.msu.edu/crcmath/math/math/p/p355.htm

Kepler Poinsot Solids

https://archive.lib.msu.edu/crcmath/math/math/k/k048.htm

Johnson Solid

https://archive.lib.msu.edu/crcmath/math/math/j/j057.htm

Catalan Solids

https://archive.lib.msu.edu/crcmath/math/math/c/c097.htm

Archimedean Solids

https://archive.lib.msu.edu/crcmath/math/math/a/a316.htm

Greeks

http://web.iyte.edu.tr/~gokhankiper/Polyhedra/Greeks.htm

Plato’s Mathematical model of the Universe – Space and Time

Michael Lahanas

https://www.faculty.umb.edu/gary_zabel/Courses/Phil%20281b/Philosophy%20of%20Magic/Arcana/Renaissance/PlatoSolid.htm

Sacred Geometry and the Platonic Solids

by Liliana Usvat

http://www.mathematicsmagazine.com/Articles/SacredGeometryPlatonicSolids.php#.Y9zA5S1h0qK

The Secrets of the Platonic Solids and Sacred Geometry

By Sebastiaan Fiolet on 19/06/2020

The Secrets of the Platonic Solids and Sacred Geometry

Tales of the Dodecahedron: from Pythagoras through Plato to Poincaré

John Baez

Kepler’s Polyhedra

http://www.georgehart.com/virtual-polyhedra/kepler.html

Platonic Solids in All Dimensions

John Baez 

November 12, 2006

http://www.math.tau.ac.il/~ostrover/Teaching/NEG2010B/platonic.htm

CONNECTIONS: THE GEOMETRIC BRIDGE BETWEEN ART AND SCIENCE

Second Edition

Jay Kappraff
New Jersey Institute of Technology USA

1991

Symmetrical Analysis Techniques for Genetic Systems and
Bioinformatics: Advanced Patterns and Applications

Sergey Petoukhov
Russian Academy of Sciences, Russia
Matthew He
Nova Southeastern University, USA

2010 by IGI Global

The mathematics of harmony : from Euclid to contemporary mathematics and computer science

by Alexey Stakhov ; assisted by Scott Olsen.

2009

Optimal Geometry in Nature, Art, and Mathematics 

Instructor: Associate Professor Dan Knopf
Email: danknopf@math.utexas.edu
Homepage: http://www.ma.utexas.edu/users/danknopf

Mathematics of Space Architectural Design, 2 edition

Author: Hoi Mun

METAPHYSICAL MATHEMATICS

Jole de Sanna

Popularizing Mathematics: From Eight to Infinity

V. L. Hansen∗

ICM 2002 · Vol. III · 1–3

Chapter 1

The Story of Numbers and Arithmetic from Ancient Times to the Beginning of the Second Millennium

Book Trilogy of Numbers and Arithmetic

https://www.worldscientific.com/doi/pdf/10.1142/9789811236846_0001

A Secret of Ancient Geometry

Jay Kappraff

NJIT, USA

MYSTERIES OF THE EQUILATERAL TRIANGLE

Brian J. McCartin

Applied Mathematics
Kettering University

Click to access mccartin-2.pdf

From Euclid to Riemann and Beyond∗ – How to describe the shape of the universe

Toshikazu Sunada

Max Brücknerʼs Wunderkammer of Paper Polyhedra

George W. Hart
Wiarton, ON, Canada, george@georgehart.com

Bridges 2019 Conference Proceedings

Click to access bridges2019-59.pdf

PATTERNS IN THE PLANE AND BEYOND: SYMMETRY IN TWO AND THREE DIMENSIONS

by B.G.Thomas and M.A.Hann

Polyhedra, from Pythagoras to Alexander Graham Bell

Tomlow, J.,

Chapter in book

Beyond the Cube. The Architecture of Space Frames and Polyhedra, ed. J.-F. Gabriel, John Wiley & Sons, Inc. New York, pp. 1-34, 1997.

Matching nature with ‘Complex Geometry’ – an architectural history

J. Tomlow
Hochschule Zittau/Görlitz (FH), Germany

Design and Nature II, M. W. Collins & C. A. Brebbia (Editors) 2004 WIT Press, http://www.witpress.com, ISBN 1-85312-721-3

Ivory shells and polyhedra

Tibor TARNAI*

*Budapest University of Technology and Economics Budapest, Műegyetem rkp. 3., H-1521 Hungary tarnai@ep-mech.me.bme.hu

Proceedings of the International Association for Shell and Spatial Structures (IASS) Symposium 2009, Valencia
Evolution and Trends in Design, Analysis and Construction of Shell and Spatial Structures 28 September – 2 October 2009, Universidad Politecnica de Valencia, Spain Alberto DOMINGO and Carlos LAZARO (eds.)

SYMMETRY : A Journey into the Patterns of Nature

Marcus du Sautoy

HarperCollins e-books.

Euler’s Gem
The Polyhedron Formula and the Birth of Topology

David S. Richeson

2008

The History of Mathematics From the Egyptians to Archimedes

Michael Flicker

OLLI Winter 2011

Plato’s Mathematical Imagination

The Mathematical Passages in the Dialogues
and Their Interpretation

by ROBERT S. BRUMBAUGH

INDIANA UNIVERSITY PRESS Bloomington

The History of Mathematics: An Introduction, 6th Edition

Burton

An Episodic History of Mathematics

Mathematical Culture through Problem Solving

by Steven G. Krantz
September 23, 2006

A History of Mathematics

THIRD EDITION

Uta C. Merzbach and Carl B. Boyer

2011 by John Wiley & Sons

THE UBIQUITY OF PHI IN HUMAN CULTURE & THE NATURAL WORLD

Jennifer Bressler

2020

Archetypal Dodecahedron

Iona Miller
Quantum Dream, Inc.

January 2017
In book: Nu Gnosis

https://www.researchgate.net/publication/315735578_Archetypal_Dodecahedron

Mysticism in the History of Mathematics

Ralph H. Abraham∗ 

12 November 2015

Click to access ms146.pdf

Truncated Truncated Dodecahedron and Truncated Truncated Icosahedron Spaces

Ümit Ziya SAVCI

 Cumhuriyet Sci. J., Vol.40-2(2019) 458-464 

Wikipedia pages for: 

Knot Theory and Recursion: Louis H. Kauffman

Knot Theory and Recursion: Louis H. Kauffman

 

Some knots are tied forever.

 

Key Terms

  • Louis H Kauffman
  • Heinz Von Foerster
  • George Spencer Brown
  • Francisco Varela
  • Charles Sanders Peirce
  • Recursion
  • Reflexivity
  • Knots
  • Laws of Form
  • Shape of Process
  • Trefoil Knots
  • Triplicity
  • Nonduality
  • Self Reference
  • Eigen Form
  • Form Dynamics
  • Recursive Forms
  • Knot Logic
  • Bio Logic
  • Distinctions
  • Topology
  • Topological Recursion
  • Ganth
  • Granthi – Brahma, Vishnu, Rudra
  • Chakra
  • Braids
  • Bandhu
  • Mitra
  • Vishvamitra
  • Friend
  • Relation
  • Sambandh
  • Love
  • True Love
  • Its a Knotty problem.

 

http://mathworld.wolfram.com/Knot.html

In mathematics, a knot is defined as a closed, non-self-intersecting curve that is embedded in three dimensions and cannot be untangled to produce a simple loop (i.e., the unknot). While in common usage, knots can be tied in string and rope such that one or more strands are left open on either side of the knot, the mathematical theory of knots terms an object of this type a “braid” rather than a knot. To a mathematician, an object is a knot only if its free ends are attached in some way so that the resulting structure consists of a single looped strand.

A knot can be generalized to a link, which is simply a knotted collection of one or more closed strands.

The study of knots and their properties is known as knot theory. Knot theorywas given its first impetus when Lord Kelvin proposed a theory that atoms were vortex loops, with different chemical elements consisting of different knotted configurations (Thompson 1867). P. G. Tait then cataloged possible knots by trial and error. Much progress has been made in the intervening years.

Schubert (1949) showed that every knot can be uniquely decomposed (up to the order in which the decomposition is performed) as a knot sum of a class of knots known as prime knots, which cannot themselves be further decomposed (Livingston 1993, p. 5; Adams 1994, pp. 8-9). Knots that can be so decomposed are then known as composite knots. The total number (prime plus composite) of distinct knots (treating mirror images as equivalent) having k=0, 1, … crossings are 1, 0, 0, 1, 1, 2, 5, 8, 25, … (OEIS A086825).

Klein proved that knots cannot exist in an even-dimensional space >=4. It has since been shown that a knot cannot exist in any dimension >=4. Two distinct knots cannot have the same knot complement (Gordon and Luecke 1989), but two links can! (Adams 1994, p. 261).

Knots are most commonly cataloged based on the minimum number of crossings present (the so-called link crossing number). Thistlethwaite has used Dowker notation to enumerate the number of prime knots of up to 13 crossings, and alternating knots up to 14 crossings. In this compilation, mirror images are counted as a single knot type. Hoste et al. (1998) subsequently tabulated all prime knots up to 16 crossings. Hoste and Weeks subsequently began compiling a list of 17-crossing prime knots (Hoste et al. 1998).

Another possible representation for knots uses the braid group. A knot with n+1 crossings is a member of the braid group n.

There is no general algorithm to determine if a tangled curve is a knot or if two given knots are interlocked. Haken (1961) and Hemion (1979) have given algorithms for rigorously determining if two knots are equivalent, but they are too complex to apply even in simple cases (Hoste et al. 1998).

 

LH Kauffman with Trefoil Knot in the back.

LH Kauffman

 

From Reflexivity

A Knot

Screen Shot 2020-01-06 at 12.49.45 PM

 

Trefoil Knot

Tricoloring

 

Screen Shot 2020-01-07 at 6.32.04 AM

 

 

 

From Reflexivity

This slide show has been only an introduction to certain mathematical and conceptual points of view about reflexivity.

In the worlds of scientific, political and economic action these principles come into play in the way structures rise and fall in the play of realities that are created from (almost) nothing by the participants in their desire to profit, have power or even just to have clarity and understanding. Beneath the remarkable and unpredictable structures that arise from such interplay is a lambent simplicity to which we may return, as to the source of the world.

 

From Laws of Form and the Logic of Non-Duality

This talk will trace how a mathematics of distinction arises directly from the process of discrimination and how that language, understood rightly as an opportunity to join as well as to divide, can aid in the movement between duality and non-duality that is our heritage as human beings on this planet.The purpose of this talk is to express this language and invite your participation in it and to present the possiblity that all our resources physical, scientific, logical, intellectual, empathic are our allies in the journey to transcend separation.

From Laws of Form and the Logic of Non-Duality

True Love.  It is a knotty problem.

Screen Shot 2020-01-07 at 9.51.03 AM

 

Wikipedia on Knot Theory

Tabela_de_nós_matemáticos_01,_crop

 

 

Please see my related posts:

Reflexivity, Recursion, and Self Reference

Jay W. Forrester and System Dynamics

Steps to an Ecology of Mind: Recursive Vision of Gregory Bateson

Second Order Cybernetics of Heinz Von Foerster

Cybernetics Group: A Brief History of American Cybernetics

Cybernetics, Autopoiesis, and Social Systems Theory

Cyber-Semiotics: Why Information is not enough

Ratio Club: A Brief History of British Cyberneticians

Autocatalysis, Autopoiesis and Relational Biology

Feedback Thought in Economics and Finance

Increasing Returns and Path Dependence in Economics

Boundaries and Distinctions

Boundaries and Relational Sociology

Boundaries and Networks

Socio-Cybernetics and Constructivist Approaches

Society as Communication: Social Systems Theory of Niklas Luhmann

Semiotics, Bio-Semiotics and Cyber Semiotics

Meta Integral Theories: Integral Theory, Critical Realism, and Complex Thought

Networks and Hierarchies

 

Key Sources of Research:

 

Home Page of Louis H. Kauffman

http://homepages.math.uic.edu/~kauffman/

Recursive Distinctioning

By Joel Isaacson and Louis H. Kauffman

 

Click to access JSP-Spr-2016-8_Kauffman-Isaacson-Final-v2.pdf

 

 

Knot Logic – Logical Connection and Topological Connection

by Louis H. Kauffman

Click to access 1508.06028.pdf

 

 

KNOTS

by Louis H. Kauffman

 

Click to access KNOTS.pdf

 

 

 

BioLogic

Louis H. Kaufman, UIC

Click to access BioL.pdf

New Invariants in the Theory of Knots

Louis H. Kaufman, UIC

https://www.researchgate.net/publication/238648076_New_Invariants_in_the_Theory_of_Knots

 

 

 

Eigenform – An Introduction

by Louis H. Kauffman

Click to access 2007_813_Kauffman.pdf

 

 

Knot Logic and Topological Quantum Computing with Majorana Fermions

Louis H. Kauffman

 

Click to access arXiv%3A1301.6214.pdf

 

 

Reflexivity

by Louis H. Kauffman

Click to access videoLKss-slides.pdf

 

 

 

Eigenforms, Discrete Processes and Quantum Processes

Louis H Kauffman 2012 J. Phys.: Conf. Ser. 361 012034

https://iopscience.iop.org/article/10.1088/1742-6596/361/1/012034/pdf

 

 

 

Eigenforms — Objects as Tokens for Eigenbehaviors

by Louis H. Kauffman

Click to access 1817.pdf

 

 

 

Reflexivity and Eigenform The Shape of Process

Louis H. Kauffman A University of

 

Click to access ReflexPublished.pdf

 

 

 

FORMAL SYSTEMS

EigenForm

Louis H. Kauffman

 

Click to access Eigen.pdf

 

 

 

EigenForm

Louis H. Kauffman UIC, Chicago

 

Click to access Eigenform.pdf

 

 

Form Dynamics

Click to access FormDynamics.pdf

 

 

Arithmetics in the Form

Click to access ArithForm.pdf

 

 

 

Self Reference and Recursive Forms

Click to access SelfRefRecurForm.pdf

Click to access Relativity.pdf

 

 

 

Laws of Form and the Logic of Non-Duality

Louis H. Kauffman, UIC

 

Click to access KauffSAND.pdf

 

 

 

Laws of Form – An Exploration in Mathematics and Foundations

by Louis H. Kauffman UIC

 

Click to access Laws.pdf

 

 

 

The Mathematics of Charles Sanders Peirce

Louis H. Kauffman1

 

Click to access Peirce.pdf

 

 

 

A Recursive Approach to the Kauffman Bracket

Abdul Rauf Nizami, Mobeen Munir, Umer Saleem, Ansa Ramzan

Division of Science and Technology, University of Education, Lahore, Pakistan

https://www.scirp.org/html/11-7402327_50601.htm

 

Shape of the Universe

Shape of the Universe

 

 

From The Status of Cosmic Topology after Planck Data

In the last decade, the study of the overall shape of the universe, called Cosmic Topology, has become testable by astronomical observations, especially the data from the Cosmic Microwave Background (hereafter CMB) obtained by WMAP and Planck telescopes. Cosmic Topology involves both global topological features and more local geometrical properties such as curvature. It deals with questions such as whether space is finite or infinite, simply connected or multi connected, and smaller or greater than its observable counterpart. A striking feature of some relativistic, multi ­connected small universe models is to create multiples images of faraway cosmic sources. While the last CMB (Planck) data fit well the simplest model of a zero curvature, infinite space model, they remain consistent with more complex shapes such as the spherical Poincaré Dodecahedral Space, the flat hypertorus or the hyperbolic Picard horn.

From The Status of Cosmic Topology after Planck Data

The overall topology of the universe has become an important concern in astronomy and cosmology. Even if particularly simple and elegant models such as the PDS and the hypertorus are now claimed to be ruled out at a subhorizon scale, many more complex models of multi-­connected space cannot be eliminated as such. In addition, even if the size of a multi-­connected space is larger (but not too much) than that of the observable universe, we could still discover an imprint in the CMB, even while no pair of circles, much less ghost galaxy images, would remain. The topology of the universe could therefore provide information on what happens outside of the cosmological horizon [35].

Whatever the observational constraints, a lot of unsolved theoretical questions remain. The most fundamental one is the expected link between the present-day topology of space and its quantum origin, since classical general relativity does not allow for topological changes during the course of cosmic evolution. Theories of quantum gravity should allow us to address the problem of a quantum origin of space topology. For instance, in quantum cosmology, the question of the topology of the universe is completely natural. Quantum cosmologists seek to understand the quantum mechanism whereby our universe (as well as other ones in the framework of multiverse theories) came into being, endowed with a given geometrical and topological structure. We do not yet have a correct quantum theory of gravity, but there is no sign that such a theory would a priori demand that the universe have a trivial topology. Wheeler first suggested that the topology of space-­time might fluctuate at a quantum level, leading to the notion of a space-­time foam [36]. Additionally, some simplified solutions of the Wheeler-­‐‑de Witt equations for quantum cosmology show that the sum over all topologies involved in the calculation of the wavefunction of the universe is dominated by spaces with small volumes and multi-­connected topologies [37]. In the approach of brane worlds in string/M-­theories, the extra-­dimensions are often assumed to form a compact Calabi-­Yau manifold; in such a case, it would be strange that only the ordinary, large dimensions of our 3-­brane would not be compact like the extra ones. However, still at an early stage of development, string quantum cosmology can only provide heuristic indications on the way multi-­connected spaces would be favored.

 

 

Key People:

  • Jeffrey Weeks
  • Jean-Pierre Luminet
  • Neil Cornish

 

Key Sources of Research:

 

The Poincaré Dodecahedral Space and the Mystery of the Missing Fluctuations

Jeffrey Weeks

 

Click to access fea-weeks.pdf

 

Dodecahedral space topology as anexplanation for weak wide-angletemperature correlations in thecosmic microwave background

Jean-Pierre Luminet, Jeffrey R. Weeks, Alain Riazuelo ,Roland Lehoucq & Jean-Philippe Uzan

Click to access luminet-nat.pdf

 

A cosmic hall of mirrors

 

Jean-Pierre Luminet

Click to access 0509171.pdf

 

 

The Shape and Topology of the Universe

Jean-Pierre Luminet

2008

 

Click to access 0802.2236.pdf

 

Luminet, Jean-Pierre.

The wraparound universe.

CRC Press, 2008.

 

Cosmic Topology : Twenty Years After

Jean-Pierre Luminet

2013

 

Click to access 1310.1245.pdf

 

The Shape of Space after WMAP data

Jean-Pierre Luminet

 

Click to access v36_107.pdf

 

 

The Status of Cosmic Topology after Planck Data

Jean-Pierre Luminet

http://www.mdpi.com/2218-1997/2/1/1/htm

Click to access 1601.03884v2.pdf

 

 

Geometry and Topology in Relativistic Cosmology

Jean-Pierre Luminet

 

Click to access 0704.3374.pdf

 

 

Constraints on the Topology of the Universe: Extension to General Geometries

Pascal M. Vaudrevange,  Glenn D. Starkman, Neil J. Cornish, and David N. Spergel

 

Click to access 1206.2939.pdf

 

 

Topology of compact space forms from Platonic solids. I.

A. Cavicchioli∗, F. Spaggiari, A.I. Telloni

 

http://ac.els-cdn.com/S0166864108003623/1-s2.0-S0166864108003623-main.pdf?_tid=dcef33b0-66ce-11e6-a806-00000aacb35e&acdnat=1471695113_cc9ccca974688f71ee9e50359f0eec06

 

Topology of compact space forms from Platonic solids. II

A. Cavicchioli∗, F. Spaggiari, A.I. Telloni

 

http://ac.els-cdn.com/S0166864109005161/1-s2.0-S0166864109005161-main.pdf?_tid=5d9e2692-66cf-11e6-a806-00000aacb35e&acdnat=1471695329_dff088bc13c91b0c0cf9658d0ed5196e

 

Ancient Map of Universe and Modern Science

Jeoraj Jain

http://www.omicsgroup.org/journals/ancient-map-of-universe-and-modern-science-2329-6542-1000127.php?aid=65522

 

Discovering the Total Contents of the Universe

Jeoraj Jain

http://www.omicsgroup.org/journals/discovering-the-total-contents-of-the-universe-2329-6542.1000102.php?aid=23742

 

Poundstone, William.

The recursive universe: cosmic complexity and the limits of scientific knowledge.

Courier Corporation, 2013.