Category: Geometry

  • Thinking Infinity – Presentation at the inaugural Colorado College Philosophy Alumni Conference

    Thinking Infinity – Presentation at the inaugural Colorado College Philosophy Alumni Conference

    Oct 3, 2026

    Consider: Every thought you’ve ever had has some specific content, which in most cases is taken to be the totality of the thought itself. Now, not every thought is functionally the same, and indeed most thoughts arise and fall away without much significance, and are happily lost to the ethers like leaves in the wind. Knowing that I had a banana as a part of my breakfast this morning will likely have no bearing on any future decision you make or what kind of person you become…

    Yet, other thoughts may indeed have a quality that not only makes them significant for you, but in such a way that they do change something about who you are and who you become, and affect the way you orient yourself in the world. We may consider such thought contents to have, functionally speaking, something like … a bit of magic in them, a bit of transformative power. Maybe an idea like that of Justice, or Truth, or Love. How is this the case?

    Well, in addition to the content of a thought, which can relatively easily be made explicit, rendered into words, and given form, we can also bring before ourselves the formING of the thought, the contexts that surround, support, and help the specific thought content come into being specifically in just that way in just that moment, for us. That is to say, we can make an attempt to become aware of not just the form of the thought, but of the process of the thinking, the precipitate of which is the content.

    Normally, we are not called upon to reflect upon this more implicit, background, nebulous, interconnected, complex, wiggly, moving, unfolding level of thinking, yet: all thought content has some way of coming to be what it is for us. Now, what happens when we take up the task, as we already are, of thinking about the process of thinking? That is to say, what effects can we observe in our thinking when it takes itself as a content of its own process, when the form is fed back recursively into its own unfolding?

    I’d like to offer you a way into this strange domain by way of an experiential method that rides on the back of a particular thought content that has something of that magic quality just referenced. The thought content in this case arises out of the domain of projective geometry, which deals primarily with the invariance of co-incidence of elements under projective transformations.

    The specific thought content that forms the basis of the experience I’d like to lead you towards is that of “infinity.” How do you think infinity? I will help you. But, before we begin, I’d like you to check in with yourself, and ask: what is your current understanding of, and relationship to, infinity? Where does it come from? How would you characterize it? If I were to ask you specifically to come up on stage and explain infinity to the group, how would that make you feel?

    Okay. There are many ways to approach thinking infinity with projective geometry, but the simplest requires only a few elements…

    So put your imaginative geometry hats on and follow me as we go on a little journey. Although it may not seem like it, I promise that you will be doing something philosophically relevant.

    So get comfortable, feel free to close your eyes if you wish. Take a deep breath…

    …and now let us imagine: a perfect single line we will call line (a) stretching, as it were, horizontally on the ground in front of you, spanning left and right into the distance.

    Now remove everything but the line and enter the Platonic space of the form itself, with no other entities yet in this universe. Let this universe be uncurved across all scales (we could curve it later if we wish).

    Now imagine point P not on line (a).
    Draw a line (z) through P such that it intersects line (a) perpendicularly.
    Note lines (a) and (z) now intersect in a new point, X.

    That’s the entire setup: a line, a point not on the line, a new line through the point that intersects the first line in a new point. We have exactly two points and two lines.

    Now, in your imagination, fix the initial line (a) and point P. They are static.
    But, rotate line (z) in a counterclockwise fashion around point P– not too fast, slowly at first, and note the change of position of point X relative to point P.

    Continue the counterclockwise rotation of (z) around P, pinning the origin of your focus to P while following exactly what is happening to X.

    Soon you will start to lose your sense of the exact position of X; you won’t be able to encompass it’s relative position to P in the same way that you could earlier, when it was “closer.”  This is the beginning of transforming your relationship with infinity in reality.

    Continue the exercise, filling in with a more exact imagination the relationship of the geometric elements wherever your attention loses focus.  Meditate it.

    You may find that your attention wants to change it’s scope, orientation, or position. Try to keep your focus so that the locus or origin point of your attention stays constant throughout. Keep yourself at the point P.

    Now, rotate (z) until you reach the point of parallelality.

    Notice. Notice your noticing and what has changed in it, when you reach this moment.

    What has happened to X?

    If you were to point to it, how exactly would you do so?

    Please, do your best to not make any jumps; no leaps or gaps — if you find yourself making such shifts, do your best to fill in the process with clear, exact thinking. If you find your lines starting to make strange bends, whip them back into their perfectly unwavering straightness and try again.

    Now let us reverse the process and rotate (z) clockwise around P until we feel we are back in a manageable situation that we can fully encompass with no loss of clarity at any point.

    Was it easier to come back than to go out?

    Rest in this more normal situation for a moment.

    Now continue the clockwise rotation until we again approach “the problem” of parallelality.

    Approach it with a fierce consciousness.

    Euclid got here, but he failed to follow the inherent logic he himself had already set up.  Perhaps his imagination was not sufficient to follow it through, completely, continuously, and coherently.  Also, infinity is scary. In his frustration, Euclid had to add postulate #5 that forever haunted him: the parallel postulate, which he avoided for as long as he could, invoking it only when he had no other choice.

    Notice newly: as lines (a) and (z) approach parallelality, X approaches infinity.
    Can we do more than “approach”? Can we “arrive”?  How?

    Notice that as X gets farther and farther away from P we must slow down the rotation of (z) in order to continue following it with the same exactness we did when it was closer.  As X goes on its infinite flight, every minor angle of rotation of (z) produces bigger and bigger effects, until …

    Place your attention upon the situation where the angle between (a) and (z) is infinitesimally close to zero… the smallest possible further rotation will make them parallel.

    What can you say about this situation?
    Can you point to X?

    Now let us allow ourselves a little leeway, and rotate (z) through the moment of parallelality so that now we are infinitesimally rotated past parallel, without requiring ourselves to account for the position of X exactly at every moment of this smallest–and yet biggest–of journeys.
    Now in your mind point to X again.

    Let us now hone in on the “problem” of parallelality by saturating our attention on the oscillation of (z) around the moment of parallelality with (a).
    See X “jumping” from left to right and back again.
    Really push for the smallest imaginable angle away from parallelality and oscillate your attention around it, making the change in angle between (a) and (z) shrink and shrink, all the while following X.

    With this saturated consciousness, rest in the moment of parallelality.
    Now point to X again.
    In what direction are you required to point?

    Let us say now that X is “at infinity.”
    The finite position of X, made from the intersection of two non-parallel lines, is somehow now an infinite position, still made by the intersection of two lines: two lines that are now parallel.

    Lines (z) and (a) never stop meeting; they never cease having a relationship that forms a unique and singular point, even when parallel.

    Two lines in a plane meet in a point; it’s as simple as that.

    Notice now that our initial point P can be anywhere.
    Now unfix and move point P away from line (a).

    Does this change anything essential about the situation?
    Where do you have to point to find X when (a) and (z) are parallel but farther apart?
    What about if you move P infinitely far away from (a)?  Does this change anything?

    See that all lines that are parallel to each other share a single point at infinity.

    Let this sink in.

    Notice that there is as yet no coherent way to talk about scale. We simply have coherent relations between geometric elements. Scale does not exist and would have to be created out of relations for us to use it.

    And now let us speed up and go farther:

    We could have placed our original line in any orientation.  Let us place a brand new line (a’) orthogonally to line (a) with a corresponding new parallel line (z’) meeting in a new point at infinity X’.

    See that when (a’) and (z’) are parallel, X’ is a different point at infinity than X.  What is different is its direction.

    Let us be clear: we are now speaking about the very nature of directionality; its source.  Remember–no–see that the distance between (a) and (z) is irrelevant.  Every line that is parallel to (a) meets at the single point X at infinity.  We can “fill in” the plane entirely with lines parallel to (a): they all meet at X.  We can even fill the volume of three dimensional space with more parallel lines, all of which still meet at a single point.  The same continuation to higher flat dimensions holds (infinitely).

    The point X, when it is at infinity, defines an infinite space of directionality. There is something of a “field-like” nature to infinity in this regard. We can say that directionality is constituted solely and essentially by a single point at infinity that defines it–that direction.

    But that direction, seen from “here,” from anywhere that is not at infinity, holds within itself a kind of strange duality. Normally when speaking of “a direction” we mean precisely the lack of every other direction. This only works when we ignore infinity. To include it requires that a single direction encompasses what is apparently its exact opposite: for any point X at infinity, from here it is simultaneously in two precisely opposing directions. Or perhaps it is better to say that every ‘single’ direction becomes its opposite through infinity (shades of Jung’s enantiadromia). Another way to say this is that point X at infinity connects to itself through ‘finity’ via all possible lines parallel to and including line (a) (shades of Feynman’s path integral formulation of quantum mechanics). A given line “here” is nothing other than a unique token of the way directionality is made manifest from its single point at infinity. The single point at infinity X, unfolded into finity, is a line.

    Ok, take a breath…

    Now, place yourself at point X at infinity. You’ll have to jump there, if you can. Shift the locus of your attention so that it is from the perspective of point X when X is at infinity.

    Can you feel what it is like to inhabit this point?

    Where, now, is the line for which you are the point at infinity?

    Can you feel how there is an inversion that happens?

    To ‘get’ to infinity we cannot simply move along the line… this would require infinite time to accomplish.

    We have to flip over into infinity. Our consciousness cannot maintain coherence through this flip — it goes dark; there is a kind of threshold that prevents us from maintaining the same kind of wakefulness that lawfully got us to the moment of the flip. We have to abandon the very process that was the only reliable source of coherence in order to cross this threshold. But having trained ourselves via the process, we find that what meets us at the threshold is itself lawful, and that to pass through it our consciousness must perform a lawful act. This act is a kind of inversion; an insiding-out/outsiding-in, not just of consciousness but of form and space itself. It is making all the previous distinctions newly, but inversely. What was once approach is now recession. The center and the periphery have flipped into each other.

    When looking “from here” we can count steps of a process, we can traverse more or we can traverse less, we have extension and duration and all that comes with relating those together with finite means.

    When looking “from infinity” any step is a step “into” the non-infinite, an inversion into space and into process, into differentiable uniqueness. At infinity, uniqueness is, as it were, collapsed into itself; it is no longer expressed outwardly but only inwardly (shades of David Bohm’s implicate order). All the potency spread out through space “here” is concretized inwardly at the infinite. From the perspective of infinity the whole universe is found infinitely far within (shades of the holographic principle…)

    It is here that we will have to stop and take off our imaginative geometry hats, although the well of projective geometry runs very deep and there are many other consequences that you can work out yourself if you keep the logic tight and your curiosity tighter.

    So let us pause for a moment, take a deep breath, and ground yourself back to this finite place and time, and approach this from a new angle.

    <<<<>>>>

    Every thought you have about infinity is wrong. Every thought you have about infinity is a dead corpse, a desiccated shell of a movement that is no longer happening. You may have heard that “infinity is not a number” — and this is true — but it is also not a thing, it is not a thought, it is not a concept, it is not an idea about a relation. To ‘have ideas about infinity’ can perhaps at best be a pointing at the moon, while at worst is a veiling of a process so deeply epistemological that it flips into the ontological.

    Infinity is rather a mode of inhabiting our own thinking that is inverted from the normal procedure. Whereas our normal thinking is largely apparent to us only when it produces for us a thought-content upon which we can reflect, so we can say to ourselves “ah, I have an idea” — the attempt to think infinity requires us to leave behind all thought-contents, and instead maintain a presence in the activity of the thinking itself. Because the normal mode of thinking is so deeply ingrained, where the activity of thinking only finds its worth when it dies into the products of its own beholding, in practice, when we wish to think infinity we find something more akin to the ‘undoing of thought’ as we are continually led past the limits of what any thought content can hold. In trying to meet infinity, it asks us to uncompromisingly relinquish what we may think we know, reversing the process of knowing into one of active unknowing.

    You can’t just think the thought of infinity, you must think your thinking, and this is precisely why infinity is so useful: any attempt to actively embrace it as a whole is met with a perfectly tuned failure mode specific to the exact way in which the thinking process aborts into a thought. It acts as a kind of objective mirror for thinking, reflecting back to us exactly and only what our own thinking is able to accomplish for itself. But it is uncompromising in that it requires us to meet it on its terms, not ours. That is to say: the attempt to think infinity is an attempt at the transformation of thinking, by thinking.

    Becoming aware of how thinking specifically abandons itself into thought, done as a practice, forms the foundation of a sense organ — a sense organ made of and tuned to the unfolding of thinking as distinction. Why distinction? Because distinction is the fundamental activity of thinking, and the fundamental activity of thinking is distinction. Following the work of George Spencer-Brown and his curious book Laws of Form, I take distinction as the primal act of epistemology and the primal act of ontology. More on this later. What is important at this stage is simply the recognition that thoughts are the result of some process, which we can call thinking, the inner workings, structure, mechanics, and dynamics of which is largely opaque to us due to the often overwhelming presence of the thought content itself, which has a tendency to immediately overwhelm such subtleties, as our attention, trained by centuries of cultural pressure that values outcomes over journeys, is entrained to only the utility or disutility of the end results. “Thoughting” — this habitual obfuscation of the process of thinking by an overvaluation of only its most obvious and externalizable aspect, is a kind of death process. If only we could just assemble a room full of the right kind of doctors… perhaps we could find a way towards a remedy that could re-enliven thinking for itself. Don’t worry: there is such a remedy.

    When thinking takes itself as its own object, something strange occurs; rather than continually shedding thoughts into consciousness and leaving them behind for the next and the next and the next thought to fill the space left by their constant fading, the redirection of thinking back to its own process yields a different kind of thought corpse, the shape of which resonates with the activity that produced it, because it is an instance of itself. This bears some scrutiny.

    Most recursive processes end in either self-extinction via reduction through negative feedback or self-extinction via explosion through positive feedback. The recursion of thinking towards itself, when its process is taken as its contents, is different, qualitatively and phenomenologically. There is a word, nay, a veritable science of this balancing act between implosion and explosion; it’s called chaos theory. Thinking that takes itself recursively is a kind of parameter-tuning towards a dynamic state known in chaos theory as “the edge of chaos,” in which complex systems balance between self-limiting and self-expanding processes so as to succumb to neither. It’s a sort of best-of-both-worlds situation, and it turns out that being in this state yields a kind of maximal adaptability, robustly open to even the smallest perturbations, demonstrating both an increased capacity to deal with novel information and the ability to generate novel responses.

    When thinking becomes recursive, it structures itself fractally by necessity. It becomes fractal; that is: it finds in itself a scale-invariant structure produced by a recursive, feedback-driven process. I do not mean this in the sense that the brain itself (note the first usage of this term) is demonstrably generated by fractal branching processes. Rather I mean this in a phenomenological way: thinking becomes aware of itself fractally. And while the status quo would generally take the fractal structure of the form of the brain as the basis for the near-critical dynamic regime that gives rise to recursively branching activity cascades in neuronal firing, I would like to propose the exact opposite, although in the interest of time I will have to leave this portion unsaid, and return us back towards the promised remedy.

    The production of a widget by a machine does not change the conditions of realization of the process of its own production. Most processes are like this. But some processes are or can become specifically sensitive to what they produce, such that the process is open to change by virtue of what the process yields. Structurally this is recursion. Thinking can have this quality, but only when it can become sensitive to its thoughts about thinking. This leads us back to the formation of thinking as a sense organ; a sense-organ whose domain of distinction is itself.

    At a very low level, every next action of a system that could be otherwise because of a distinction made by the system involves cognition. Distinction, following threads from cybernetic epistemology, is a fundamental ontological-epistemological act by which the undifferentiated plenum or void (as these are equivalent) becomes not-itself in just that particular way marked by the distinction. When the consequences of an act of distinction become relevant to the system’s next possible steps, specific limited options for action become newly available to the distinguishing system. We can call the process of this ‘relevancing’ sensation in its most primal form. Sensation is to become sensitive to the relevance of a distinction, that is, to the difference that the distinction makes; this is underlying form of Gregory Bateson’s “difference that makes a difference.” Sensation is thus another recursion; or rather, the same recursion seen from a different spot in the fractal.

    When the loop is functionally closed between the system’s ability to distinguish and its sensitivity to the consequences relevanted to the distinguishing system, a sense organ is formed. A sense organ is simply a way to describe the continued action of this recursive functional relation. A sense organ is thus an epistemological-ontological recursive unity, keyed to the domain of differences made available to it through the distinctions with which it is recursively linked. However, in almost all cases this recursive link between distinctions and the activity of the corresponding sense organ is not itself the subject of distinction. In such cases the system is not aware of how it senses, only that it senses some content.

    And now we can come full circle back to thinking about thinking, now viewed from the perspective of this new recursive framework, whereby thinking, when it takes itself as its own object, forms a sense organ. Thinking is enlivened when it is not merely self-reflective, but when it is fractally self-generative, understood in this recursive way. The alchemical image of the ouroboros, the snake that eats its own tail, is a potent symbol of this structural form. Thinking dissolves itself into itself in order to form the basis for itself newly. In a strangely literal way we can say that thinking eats its thoughts in order to digest them so as to form its own structure.

    The general undertaking and form of this inquiry is an example of what I call aesthetic epistemology. Aesthetic epistemology is a way of knowing about our knowing, developed out of and relying upon the way that thinking can become recursive to itself. It focuses on the recognition and then unfolding of the consequences of the fundamental structural metapattern whereby higher-order activity is recursively linked with lower-order form generated by that activity, the prime example of which we have just seen in thinking itself.

    The question of aesthetic epistemology is: “How am I distinguishing?” Because every act, every feeling, and every thought involves a distinction at some level, changing how we distinguish (and therefore what becomes distinguishable for us), is the core focus. It is the study of how our distinctions can change when we distinguish our distinction.

    The domain of differences opened by this process of distinction is not merely cognitive or just conceptual (although they are that, too). They are differences that are felt. Aesthetic epistemology is literally a feeling of our thinking, a feeling-thinking, just as much as it is a thinking-feeling, and in the appropriate recursive form is both: a feeling-thinking thinking-feeling, and a thinking-feeling feeling-thinking. And I apologize if that is harder to grasp than infinity.

    To close I’d like to leave you with another invitation to sense your own thinking and put some of this into practice. As you leave this session, you will notice, on a table somewhere back there, some little circular paper cutouts with a variety of dark blob shapes bounded by a circle. And for our Zoomies, you can get the one on screen and I was told there would be a download link in the session for a PDF version. Please feel free to pick one up on your way out. Your task is the following:

    • Attend to your attention as you look at this strange thing before you.
    • Distinguish as you can the distinctions made by your thinking, both about the visual stimulus and about the thinking process itself.
    • Play with the distinctions; undo them, make new ones, see their effects.

    My only request is that you do not inadvertently give anything away to anyone else if something … interesting happens to and in your attention, so as to give everyone an equal opportunity for both ignorance and revelation.

    Thank you.

    Image

  • Thinking Through Infinity with Projective Geometry

    Thinking Through Infinity with Projective Geometry

    whence-and-where-to
    Quita Brodhead. Whence and Where To. 2000. Oil on canvas. 36-1/4 x 48 inches. Courtesy of Hollis Taggart Galleries, New York, and the Estate of Quita Brodhead

    I’d like to offer something from the realm of projective geometry, with respect to infinity, that is (believe it or not) very practical.  I have found that projective geometry offers something that is frankly unparalleled: a way to think towards infinity which is, at every step, clear and exact, brooks no nonsense, and is communicable and hygienic to boot.  If you follow the exercise, I guarantee you will learn something about infinity.  You will learn something of its signature, to use an esoteric term, and be able to recognize it when it shows up in other forms and within other processes. Also you can blow your friend’s minds at your next get-together if you lead them through this process, and spark some fascinating discussion that will leave everyone better than they were before.

    In order to think towards infinity we have to change the habitual patterns of thinking that are called forth and repeatedly solidified through the way we usually make sense of our daily interactions with the world.  We can, however, be led through a transparent process that requires no faith, no gaps or hidden elements, to push our mental conceptions to their limit, even to invert them.  It is a process that requires participation and fails when we feel like we “have it” or have reached an answer.  The change of perception only happens in the way the exercise functionally changes our ability to, if I may put it poetically, m/a/e/ssage our consciousness across the infinite boundary.  It only works while we are doing it: once we only remember what we have experienced afterwards as a (fallen) fact, we have lost the essential nature stirred momentarily to life in our awakened thinking.

    That’s just a little preparation.  There are many ways to do this with projective geometry, but the simplest requires only three elements: two lines and a point.

    Let us imagine: line (a) stretching, as it were, horizontally on the ground in front of you, spanning left and right into the distance. 

    Now remove everything but the line and enter the Platonic space of the form itself, with no other entities in this universe. Let this universe be uncurved across all scales (we could curve it later if we wish).

    Now imagine point P not on line (a).
    Draw a line (z) through P such that it intersects line (a) perpendicularly.
    Note lines (a) and (z) now intersect in a new point, X.

    This is the setup. 
    Now, rotate line (z) in a counterclockwise fashion around point P– not too fast, slowly at first, and note the change of position of X relative to P.
    Continue the counterclockwise rotation of (z) around P, pinning the origin of your focus to P while following exactly what is happening to X.

    Soon you will start to lose your sense of the exact position of X; you won’t be able to encompass it’s relative position to P in the same way that you could earlier, when it was “closer.”  This is the beginning point of transforming your relationship with infinity in reality.

    Continue the exercise, filling in with a more exact imagination the relationship of the geometric elements wherever your attention loses focus.  Meditate it.

    Now, rotate (z) until you reach the point of parallelality. 

    Notice. Notice your noticing and what has changed in it, when you reach this moment.

    What has happened to X?

    If you were to point to it, how exactly would you do so?

    Please, do your best to not make any jumps; no leaps or gaps — if you find yourself making such shifts, do your best to fill in the process with clear, exact thinking. If you find your lines starting to make strange bends, whip them back into their perfectly unwavering straightness and try again.

    Now let us reverse the process and rotate (z) clockwise around P until we feel we are back in a manageable situation that we can fully encompass with no loss of clarity at any point.

    Rest in this more normal situation for a moment.

    Now continue the clockwise rotation until we again approach “the problem” of parallelality.  

    Approach it with a fierce consciousness.

    Euclid got here, but he failed to follow the inherent logic he himself had already set up.  Perhaps his imagination was not sufficient to follow it through, completely, continuously, and coherently.  Also, infinity is scary. In his frustration, Euclid had to add postulate #5 that forever haunted him: the parallel postulate, which he avoided for as long as he could, invoking it only when he had no other choice.

    Notice newly: as (a) and (z) approach parallelality, X approaches infinity.
    Can we do more than “approach”? Can we “arrive”?  How?

    Notice that as X gets farther and farther away from P we must slow down the rotation of (z) in order to continue following it with the same exactness we did when it was closer.  As X goes on its infinite flight, every minor angle of rotation of (z) produces bigger and bigger effects, until … 

    Place your attention upon the situation where the angle between (a) and (z) is infinitesimally close to zero… the smallest possible further rotation will make them parallel.

    What can you say about this situation?
    Can you point to X?

    Now let us allow ourselves a little leeway, and rotate (z) through the moment of parallelality so that now we are infinitesimally rotated past parallel, without requiring ourselves to account for the position of X exactly at every moment of this smallest–and yet biggest–of journeys.
    Now point to X again.

    Let us now hone in on the “problem” of parallelality by saturating our attention on the oscillation of (z) around the moment of parallelality with (a).
    See X “jumping” from left to right and back again.
    Really push for the smallest imaginable angle away from parallelality and oscillate your attention around it, making the change in angle between (a) and (z) shrink and shrink, all the while following X.

    With this saturated consciousness, rest in the moment of parallelality.
    Now point to X again.
    In what direction are you required to point?

    Let us say now that X is “at infinity.”
    The finite position of X, made from the intersection of two non-parallel lines, is somehow now an infinite position, still made by the intersection of two lines: two parallel lines.
    Lines (z) and (a) never stop meeting; they never cease having a relationship that forms a unique and singular point, even when parallel. 

    Two lines meet in a point; it’s as simple as that.

    Notice now that point P can be anywhere. 
    Move point P away from line (a).

    Does this change anything essential about the situation?
    Where do you have to point to find X when (a) and (z) are parallel but farther apart?
    What about if you move P infinitely far away from (a)?  Does this change anything?

    See that all lines that are parallel to each other share a single point at infinity.

    Let this sink in.

    And now let us speed up and go farther:

    We could have placed our original line in any orientation.  Let us place a new line (a’) orthogonally to (a) and repeat the experiment with parallel line (z’) meeting in X’.

    See that when (a’) and (z’) are parallel, X’ is a different point at infinity than X.  What is different is its direction. 

    Let us be clear: we are now speaking about the very nature of directionality; its source.  Remember–no–see that the distance between (a) and (z) is irrelevant.  Every line that is parallel to (a) meets at the single point X at infinity.  We can “fill in” the plane entirely with lines parallel to (a): they all meet at X.  We can even fill the volume of three dimensional space with more parallel lines, all of which still meet at a single point.  The same continuation to higher flat dimensions holds (infinitely).

    The point X, when it is at infinity, defines an infinite space of directionality. We can say that directionality is constituted solely and essentially by a single point at infinity that defines it–that direction.

    But that direction, seen from “here,” from anywhere that is not at infinity, holds within itself a kind of strange duality. Normally when speaking of “a direction” we mean precisely the lack of every other direction. This only works when we ignore infinity. To include it requires that a single direction encompasses what is apparently its exact opposite: for any point X at infinity, it is simultaneously in two precisely opposing directions. Or perhaps it is better to say that every ‘single’ direction becomes its opposite through infinity. Another way to say this is that point X at infinity connects to itself through ‘finity’ via all possible lines parallel to and including (a). A given line “here” is nothing other than a unique token of the way directionality is made manifest from its single point at infinity. The single point at infinity X, unfolded into finity, is a line.

    Place yourself now at point X at infinity. You’ll have to jump there, if you can.
    Can you feel what it is like to inhabit this point?
    Where, now, is the line for which you are the point at infinity?

    Can you feel how there is an inversion that happens?
    To ‘get’ to infinity we cannot simply move along the line… this would require infinite time to accomplish.
    We have to flip over into infinity. Our consciousness cannot maintain coherence through this flip — it goes dark; there is a kind of threshold that prevents us from maintaining the same kind of wakefulness that lawfully got us to the moment of the flip. We have to abandon the very process that was the only reliable source of coherence in order to cross this threshold. But having trained ourselves via the process, we find that what meets us at the threshold is itself lawful, and that to pass through it our consciousness must perform a lawful act. This act is a kind of inversion; an insiding-out/outsiding-in, not just of consciousness but of space itself. It is making all the previous distinctions newly, but inversely. What was once approach is now recession. The center and the periphery have flipped into each other.

    When looking “from here” we can count steps of a process, we can traverse more or we can traverse less, we have extension and duration and all that comes with relating those together with finite means.

    When looking “from infinity” any step is a step “into” the non-infinite, an inversion into space and into process, into differentiable uniqueness. At infinity, uniqueness is, as it were, collapsed into itself; it is no longer expressed outwardly but only inwardly. All the potency spread out through space “here” is concretized inwardly at the infinite. From infinity the whole universe is found infinitely far within.

    Pause for a moment.

    Let us return and gain further contextualization.

    And as we have seen, parallel lines (a’) and (z’) meet in a different point at infinity, X’, which then constitutes the way that all possible space is contextualized from that specific (dual) direction.

    And see now that we must go further, and point out that X and X’ are two distinct points, which as we know, can be connected by a single line.

    Where is this line (x), that connects the two points at infinity X and X’?
    Can you point to another point on this line?

    See that any direction in the plane shared by (a) and (a’) has its point at infinity that lies on this new line (x).

    We must say that line (x) is a line at infinity, and that every point on this line is likewise at infinity.

    Can you imagine walking along this line at infinity?
    Can you feel something of the nature of this line at infinity, something of its character, its gesture?

    Place yourself at point X at infinity, and now look at point X’ at infinity — what direction is it in?
    If you wanted to reach it, how could you do so? What possible moves can you make and not fall back into non-infinite space?

    There is only one possible move, and that is to move orthogonally to the direction of the line (a), whose point at infinity you are. But you will have to move infinitely far along the orthogonal direction.

    See how infinity becomes contextualized by orthogonality in addition to directionality.

    Like any line, between any two points lie an infinity of other points. Let us imagine one such point X” between X and X’. Notice that no matter how close you place this new point X” to X, the two points are infinitely far away from each other along line (x). Notice that from “here” we meet line (x) always orthogonally, no matter which direction in the plane we point.

    Now we can see that just as the single point X at infinity concretizes itself across the infinite boundary as a line, so too the line (x) at infinity concretizes itself across the infinite boundary as a plane. A line at infinity is a plane “here.”

    We see that there is a tendency to think of this line at infinity as a kind of circle. It is the only form that we can recognize as having similar properties. The line at infinity surrounds us; I can point in any direction in the plane and will meet the line at infinity orthogonally to my pointing. Despite this, the line is always and only ever straight. It does not curve, waver, or fold. It is exactly as much a line as any other, constituted precisely by the way all its points share directionality. But we see that this directionality at infinity is always orthogonal to all directions by which its points are reached from “here.” When we follow our pointing from “here” to X and then to X” we can measure some precise angle swept by our arms (for remember, we must point in two directions simultaneously). It would seem then that if we meet the line (x) at infinity along direction (a) orthogonally, then change the angle of our pointing, surely we must now meet (x) at some angle other than 90 degrees? Yet this is not the case; we always meet it, in every direction, orthogonally to our pointing, and the line never curves to accommodate our limited thinking. It remains straight, and infinitely so.

    If you are on line (x) at infinity and wish to point in any direction other than along line (x), you must do so at 90 degrees to (x). All points not on line (x) are infinitely far away in the orthogonal direction, a direction shared across every point on line (x).

    Yet your intuition that the line (x) at infinity is a circle is, in a way, quite correct. In fact, the line (x) at infinity is an infinite circle whose center is everywhere.

    We cannot stop only at the line at infinity. Notice that there are infinitely many lines at infinity, each with their own unique directionality. Notice how any two lines that share a point define a plane. Notice how every line at infinity shares a single unique point with every other single line at infinity, and thus defines a single, unique plane at infinity? While it is possible “here” to have lines that are skew to each other and thus share no common point “here,” their respective points at infinity lie on a line at infinity, and this line is always a part of the same unique plane at infinity.

    Let this sink in. Just as there exists a single line at infinity for a given plane, that in some sense surrounds the plane and enfolds it within itself, so too there exists a single plane at infinity for a given volume, which surrounds that volume and enfolds it within itself. The line at infinity is the boundary of the two-dimensional plane; the plane at infinity is the boundary of the volume of three-dimensional space.

    From your position “here,” look in any direction. Follow this direction to infinity and you meet the unique, singular plane at infinity, and you meet it always and only orthogonally. Pascal gave no mere poetic turn of phrase when he said “Nature is an infinite sphere of which the center is everywhere and the circumference nowhere” — this is an exact imagination. Every place “here” is equidistant from the infinite plane at the periphery, and is thus equally the center as every other place “here.” The circumference of the infinite sphere is the plane at infinity, whose circumference is literally no-where; to be at infinity is to not have “a” place, to have no “here.” Infinity is an inversion of space, or perhaps its enfoldment within itself.

    Euclid illuminated the basic logic of relations between point, line, and plane “here,” but he could not encompass infinity with the same logic. Yet it is by logic that we ourselves can go deeper than Euclid, to see precisely and exactly what is required of us if we are to penetrate to the inner nature of infinity. Along the way we find that we must speak of the reality of directionality, orthogonality, and inversion as essential inner aspects of infinity.

    Follow the exact imaginative exercises presented here again and again until infinity saturates your consciousness; you will find that your phenomenological discoveries will forever recontextualize your relationship with what before was vague, confusing, and mysterious. The mystery, however, will only deepen.

  • The New Sacred Geometry of Frank Chester

    The New Sacred Geometry of Frank Chester

    This article was recently written for the Science to Sage International eMagazine. It introduces the work of Frank Chester, artist, sculptor, and geometrician, and explores how the special seven-sided volume with faces of equal area — the Chestahedron — relates to the traditional Platonic Solids.

    Download a high quality PDF here: The New Sacred Geometry of Frank Chester

    Or wait for the PDF to load below…

  • Contributing artist at New Forms Technology

    Contributing artist at New Forms Technology

    If you don’t know about the discovery of the Chestahedron, a volume with seven faces of equal area, you should check it out at New Forms Technology (shameless plug: I’m the webmaster).

    I have been experimenting with the form in its sculptural capacity, and have come up with some interesting designs that are featured on the site, which you can see here.

    Below are a few samples of my work, click for larger:

     

    Chestahedral Columns

    Chestahedral Rings

    Chestahedral Star

  • Goethean Studies Notebook

    Goethean Studies Notebook

    Goethean-Studies-1999-2000-Notes-by-Seth-MillerPDF: Goethean Studies Notebook (40mb)

    PDF: Higher quality, print version (180mb)

    This notebook was created as a personal record of the 1999-2000 Goethean Studies program at Rudolf Steiner College. This unique course, conceived of and taught primarily by Dennis Klocek, is still being offered — it is now called Consciousness Studies. When I took the course, which was seven months long and met for about three hours every weekday, I liked to call it “Being Human 101”, because it offered some basic perspectives about being human that spanned the spiritual, psychological, and physical worlds in a very deep and coherent way.

    There are certainly errors contained herein: it was often simply not possible to record more than the merest fragments of the vast pictures that awakened in the little Emerson classroom and flowed like honey across our minds. This record is like a six year old’s crayon rendition of a Michelangelo: it may contain something recognizable, but is no substitute for the real thing, which I encourage everyone to experience.

    It is likely that the only people who will see this document are those already familiar with the course in one of its various incarnations. For you I hope that it re-awakens a commitment and enthusiasm for the hard and necessary work of spiritual transformation by connecting you to the feeling you had sitting in the uncomfortably cold room on uncomfortable chairs, listening to another mind-blowing morning lecture by Dennis: the feeling that you were exactly where you needed to be and wouldn’t trade it for anything.

    For those who have not been able to take the course, this gives a tiny taste of some of the content that was presented in its 1999-2000 incarnation, and will hopefully inspire you to research the current, more highly refined and potent version.

    For those who have found this page but have no idea what I’m talking about even though you’ve read this far, just flip through it like it was you long-lost friend’s photo album and see what tickles your fancy as you skim on by.

  • A little presentation on the Golden Mean / Phi — for fun!!!

    A little presentation on the Golden Mean / Phi — for fun!!!

    A golden section is a geometric form constructed in a particular ratio of 1:1.618… (it’s an irrational number that goes on forever without repeating… I like the idea that the golden ratio is irrational).  Technically, the golden section is defined as the relation between two sections (a short and a long) on a line which divide the line in a homonic relation. The relation between the short and long section is the same as the relation between the long section and the whole line:  

     

    The simplest construction is a rectangle.  You are familiar with golden-ratio rectangles in the form of your credit cards:  

    Incidentally you can make your own golden section ratio device to discover how saturated the world is with these ratios or to follow along by using it with the images in this post.  It’s easy!  Just follow these instructions:

    Golden rectangles nest perfectly because of the ratio:  

    You also have a golden spiral which is embedded in the nesting rectangles:  

      

    This same spiral can be found with golden triangles too:  

    It’s known as a logarithmic spiral:  

    And it relates to the pentagon/pentagram:  

    The pentagram is built entirely of golden sections:  

    The logarithmic spiral is an extremely efficient shape for biological growth, and is thus found all over the natural world, specifically in biology:  

    But is also found in non-living things, like galaxies:  

    Closest to home, however, it is found over and over in the human body.  In fact, as far as I am aware, the human body has more golden ratios than any other biological organism:  

    Our good friend Leonardo concurs:  

    So does his pal Michelangelo:  

    But here’s something more to chew on:  

    If you start to MEASURE these ratios, you find that they have an interesting pattern:  

    The next number in the sequence that leads to the golden ratio ends up being equal to the sum of the previous two numbers:  

    This is called the Fibonacci sequence, after, um…  

    Yeah, that guy.  

    BONUS:  I bet he would have been able to figure out the following conundrum:  

      

  • Chaos theory and fractals – 5/4 (!?!)

    Chaos theory and fractals – 5/4 (!?!)

    A response to the question: “How is chaos theory non-determinant?”

    This is an interesting question, because I think it might normally be asked in the opposite way: “How is chaos theory DETERMINANT?”, because chaos theory is, well, chaotic, so it seems more logical to connect chaos with non-determinancy than with determinancy.

    So to explore the question that wasn’t really asked:
    The techniques which we have discovered that allow us to analyze systems that exhibit chaotic behavior are completely deterministic: they are mathematical in nature, having the feature of acting like an Ouroboros, where the output becomes the input in a recursive cycle.  We can start with even very very simple systems, and show how chaotic behavior results when the system evolves, when that system’s evolution takes place in ways describable by this type of recursive mathematics (not all systems are so describable).  Really the MATH isn’t the thing here, it’s rather the RECURSIVE PROCESS, RULE, or PROTOCOL that is important.  The math is just a really nice and clean way of expressing the essence of what happens when a system evolves by following a recursive rule.

    So chaos THEORY is determinant in that the rules which it utilizes to describe evolving systems have the potential to be calculated EXACTLY from iteration to iteration.  In other words, if we had a computer that could deal with an infinite number of digits we could theoretically pinpoint the next iteration describing the state of a system at the next moment with complete precision.  BUT, there are serious caveats to this when applied to anything beyond the purely mathematical formulations themselves.  REAL systems may be more or less calculable, more or less complex, and more or less willing to submit to the precision capable in theory.  The determinacy of chaos theory is therefore more like a theoretical determinacy, having a dubious ontological status.  I won’t get into the very crazy and amazing philosophical arguments that whirl around such things, to your immense relief.  Suffice it to say that THE WORLD IS MYSTERIOUS, and we have to be careful when dealing with the connection between our thinking and our observing.

    The ‘problem’ with chaos theory is that we can’t observe closely enough to know where to START our calculations, so we ALWAYS know that they are ‘wrong’ when dealing with the actual observable world.  This is that ‘sensitive dependence upon initial conditions’ thing again: there is no lower limit at which a difference does not potentially make a difference, even ALL the difference.  In other words, even the smallest possible change cannot be ignored.  The thing is that we can never know ahead of time when such a difference may be either influential or inconsequential – we have to let the system evolve in actuality in order to find out.  We can’t calculate the future states of the system (which are theoretically determined!) with much success because (depending upon the system’s complexity and initial state) as soon as we get a few iterations under our belts our calculations tend to diverge from other initial states that were infinitesimally close to the one we are actually calculating. So our results tend to be so far off from what we will later actually observe that we start calling the whole thing a theory of CHAOS, even though every step in the process is ‘determined’; hence “deterministic chaos”.  So even today a large bulk of weather predictions are based not off of complex theories of high pressure and low pressure zones, temperature gradients, moisture content, and such, but rather simply off of a comparison with past ACTUALITIES.  Predictions START with a comparison of the averages for a particular place for that same day in previous years, because this is often a better predictor than if we were to try and start with vastly incomplete current data.  The best predictions, of course, blend the two methods, but you’ll notice that nobody (okay, this isn’t true, but such people have completely different methods for prediction) is giving weather predictions much beyond a week or two at best.  This isn’t just a fault of our weather theory, but is a consequence of the RECURSIVE NATURE OF NATURE.

    So what is interesting is that our understandings from quantum physics put us in the strange position of having to admit that WE CAN NEVER HAVE PERFECT KNOWLEDGE of the state of any system – no matter how simple.  So we can’t even hold on to some ‘theoretical’ exactness that would be possible if only we had better instruments, or more complete observations.  THERE IS NO SUCH THING AS A COMPLETE OBSERVATION — at least in the sense of what had been the promise and holy grail of physics before the s**t hit the fan with relativity, quantum mechanics, Gödel, and chaos theory.  It turns out we live in a dirty universe, which is much more crazy and mysterious than we had imagined or hoped.

    Kevin Van Aelst, The Cantor Set (fried egg), 2004

    But what is key here is that chaos is not a result of linear progressions, but is more or less inherent (in systems with almost any level of complexity) when the Ouroboros steps in and finds its tail: recursion yields chaos.  I find this fascinating, because so many (all?) parts of the natural world utilize recursion as a technique — particularly in the living realm, but even in the purely mineral realm as well.  Whenever nature comes up with a new process it tends to repeat itself if the conditions allow it.  This repetition can easily become recursive, where some aspect of the process acts upon or is acted upon by some other aspect of the process.  When this happens you usually either get a complete breakdown or cessation of the process (a sort of suicide process, sometimes through growth), or you get emergent complexity, homeodynamic systems, self-regulating organization, and the basis for higher-level recursions.

    At the same time, every recursive process is — although perhaps potentially infinite — embedded in a contextual situation that provides limits and boundaries to the system’s evolution.  Sometimes it happens via a law of physics, sometimes as a consequence of mathematical relations in the context of physical laws (as in the increase in volume with the cube and the surface area with the square), and sometimes it’s just the seemingly contingent facts of context (it doesn’t rain that year, the food runs out, the salinity changes slightly, and so forth).  The point is that these contextual limitations are not usually a part of the chaotic models proper.  Rather, the chaotic models become themselves modified by through a corresponding synthetic analysis of contextual facts.  The Mandelbrot fractal is what it is because it does not have to evolve in the context of anything REAL; it is an ideal form through and through.  This is why we only find approximate fractals in nature, forms which approach the self-similar repetition of mathematical models.  But rather than say that nature’s forms approximate mathematical laws, maybe we should say that our mathematical laws approximate nature’s forms.  Maybe the laws we use to think about these forms are one of the ways that nature involves itself in a sort of grand recursion; the mathematical laws are like a high-level iteration of a process which at a lower level is much more messy and dynamic, but now has the benefit of taking place completely within the consciousness of a human being, thus allowing it to reach a new level of emergent complexity, i.e. the laws of emergent complexity themselves.