Hyperset Networks

Proposed Mathematical Framework for a Grand Unified Theory of Physics (and Consciousness)

by Paul Hughes

January, 2013

Note to readers: I’ve hesitated to make this public, given it’s preliminary status. This is definitely a work in progress. For the time being I have neither the time nor the inclination to fully develop the mathematical formalism necessary to turn this into an actual working theory with potentially predictive power. Besides the initial “aha” moment that has convinced me this theory holds *the key* to solving quantum gravity, not to mention opening up new dimensions we never considered before, is that after a very extensive search of the scientific abstracts, I was unable to find any reference to “hypersets” in relation to advanced theoretical physics dating all the way back to the birth of quantum physics in the 1920’s. At the very least, I was expecting at least one mention, if for no other reason than to discount it as a valid predicate in building a grand unified theory, or an actual theory of quantum gravity itself. So please dear reader, read the following with that in mind. These are just my thoughts and ruminations on how our universe might surprise us even further.

Amanda Sage's 'Eggcension'. I own the original of this painting, and to me it both inspired and expresses this hyperset (hyper-seed/egg) network.

Amanda Sage’s ‘Eggcension’. I have the original, and while having a visual conversation with it one afternoon, the insight for this theory came to me. Think of each hyperset as an egg giving birth to everything including itself, with each egg connected to and containing all the others. So not only is each egg a part of a greater whole, each egg is fully fractalized and is the greater whole, and at every level. Since it’s fully nested (pun intended), there is no linear temporal cause-and-effect, it is completely non-linear in both time and space – it’s everywhere everywhen simultaneity.

A few months ago, while staring at an Amanda Sage painting called Eggscension, the original of which I’m lucky to have in my possession, I had a profound experience of something like quantum cosmic consciousness. In this experience there was no distinction between the very small and the very large, between a singularity and the expanse. Every part of the universe contained every other part. Evert point contained the universe, and not in some fuzzy low resolution way like a hologram, but the whole thing! There was no beginning or end, no cause and effect, only a collapse of seeming paradoxes into full unification, where big and small, inner and outer universes became one. Something like this has been the holy grail of physics and science for almost a century. So it was quite a shock when the whole thing finally made sense to me. I sat on this experience for a while, letting it gestate and integrate. I understood it intuitively but had yet come to any mathematical formulation. Then one evening I made the connection to hyperset theory – a rather errant branch of mathematics that seems perfectly suited to describing this grand unification.

It seems obvious to me that if we are to arrive at something that unites all of these forces, including the “geometry” of gravity, we need to devise something that is pregeometric in nature (something the physicist John Archibald Wheeler advocated). Something regarding connectivity that is independent of topology and dimensionality.

In math, we often think the simplest concept is a number like 0 or 1, but the simplest concept is something called a set.  A set is a collection of entities, like a bag of groceries, or even a bag with nothing in it. A set that has nothing in it is called an empty set:

Set ()  or  Set {notin}

So what happens when we have a set that contains itself as a set?  We get something very interesting. If the set is a bag, then we would get a bag that contains a bag, that contains a bag, that contains a bag, and so on to infinity. Since it doesn’t contain anything other than itself, is the bag empty or full?

This is an example of a hyperset . Hypersets are sets which contain themselves as sets. They are part of Naive Set Theory. Hypersets can result in all sorts of interesting paradoxes such as Russell’s Paradox, where you can end up with sets that are both themselves and not themselves simultaneously. This is kind of like saying a donkey is not a donkey. Or you get something like the Liar’s Paradox such as “this statement is false”. These paradoxes bothered some people so they created Axiomatic Set Theory to eliminate them. However, many mathematicians prefer keeping them around because they are the natural result of valid mathematical reasoning. One of these people was Kurt Gödel, who with his Incompleteness Theorem showed that self-reference cannot be banned from mathematics. And besides, these natural paradoxes seem to explain how the universe actually works – just look at quantum mechanics! Ultimate questions about existence always seem to involve paradox. Examples: Why are we here? Why is there something, rather than nothing? If there was a beginning, what happened before the beginning?

Since sets are the simplest mathematical form, then any theory of “everything” should include them as a foundation right? And since hypersets (as I’ll explain) beget unlimited complexity, a theory of “everything” should include those too right? However, after doing an extensive search in the peer reviewed literature on String Theory and Loop Quantum Gravity, I was unable to find any mention of hypersets anywhere in the search for a unified physical theory. This is astonishing to me! Hyperset’s simplicity and profundity explain more clearly the paradoxes of quantum physics, how we can go from nothing to something, and how the very small world of quantum mechanics and the very large world of space-time can be unified within a single and simplified mathematical framework. If we give mainstream physicists the benefit of the doubt, there should be at least one mention of hypersets in the literature, if nothing else than to discount hypersets as useless in solving the unification problem. Since there is no mention of them at all, the only conclusion I can make is they are missing the obvious. This would not be the first time. How many times has a major conceptual breakthough been “obvious” in hindsight? This is something I have long suspected about the current pursuit of a unified theory of physics, given the overwhelming complexity that makes up contemporary string theory. Clearly they are not right and are in fact down some blind alley, otherwise they would have solved the quantum gravity problem by now. Or at least made serious progress towards testable predictions. They haven’t, which is why some physicists have said that string theory has gone so far off into the weeds that it is not even wrong. Obviously, the final equations of a fully unified theory of nature would have to include all of the unique constants and properties of our particular universe, but those equations should exists within a simple and elegant mathematical framework like hypersets. Since they are also quantum hypersets, they would be probabilistic hypersets, as Bucky Fuller might say in summation:

Universe is infinitely nested hyperset probability networks.

Which really means it’s an infinitely nested fully unbounded multiverse, of which temporal causation is a step-down from what is fundamentally acausal.

So what happens when we define a set as containing itself? The result is infinite self-recursion. Out of nothing, we get the beginning of “something”, in this case SPACE, or more accurately – super-space – an infinite dimensional space. Consciousness without an object.

Set {notin} {doubleright} Set(Set(Set())... {infty}) {doubleright} Set {varnothing}

The empty set contains itself. Therfore it contains something, but that something is nothing, or because it’s something with nothing in it, it would more accurately be called empty. Hence we’ve gone from nothingness to emptiness (aka. infinite super-space). Hence it is a non-well-founded set, or hyperset, or empty hyperset. Any parts of the empty hyperset are identical, either a large part (O) or the singleton {O} ; the union of empty sets is also the same:

O {union} (O) {union} (O) {union}(O,(O)) {union} (O,(O),(O,(O,(O)))) {union}... = O.

Expanding outwards, these nested hypersets can split into “different” sets, each set containing itself and all other sets. Example:

Set A {in}(A,B,C,D,E)
Set B {in}(B,C,D,E,A)
Set C {in}(C,D,E,A,B)
Set D {in}(D,E,A,B,C)
Set E {in}(E,A,B,C,D)

However, because each set contains the same as every other set they are still the same set, so we’ve gone from emptiness to “somethingness” in the absolute minimal sense of that term, or what G. Spencer Brown’s in his Laws of Form, calls the first difference that makes a difference.

The next step is to create sets that contain every other set, except for itself. When you do this, interestingly, you’ve still have a hyperset, it’s just that the original set is one degree down – hidden within one of the subsets, and in this case just one subset away. Mathematically this is what I call 1st degree hypersets – one degree of seperation between the original set and an identical subset. Example:

Set A {in}(B,C)

Set B {in}(A,C)

For the first time we have three unique sets! But this number could just as easily be an infinite number of unique sets. Yet they are still hypersets with a degree of separation of 1. To have unity, you have to go from either A to B back to A. or A to C and back to A.

However in all of this there still is no time. Without time, it would be meaningless to say one set gave birth to another set. Since each set contains itself, or is contained at some subset down in the recursive chain, this means there was no initial set! Since Set A contains Set B which contains Set C, which contains Set A, it’s a loop, with no beginning or ending.

These are not closed loops, but open recursive loops, which are both internally and externally expanding and contracting simultaneously. This is an incredible far-out and seemingly paradoxical thing and has huge implications, because we are talking about something that is both infinitely within and without simultaneously! Both an incursion and excursion, infolding and exfolding – a full union between inner and outer space.  If this is true, and I believe it is as demonstrated by the rigorous framework of Hyperset Theory, then:

The underlying fabric of existence is an eternal hyper-dimensional, hyper-connected network fusion between observer and observed, with infinite degrees of freedom and possibility.

As the nested hypersets get more diverse with greater degrees of separation (Hausdorff distance?), out of this eternal network emerges an endless dance of beautiful and astonishing multidimensional forms and expressions, including the universe we see today. Because every set (quanta) ultimately contains a copy of itself, every quanta in the universe is an instantaneous portal to every other quanta as predicted by Bell’s Theory and quantum entanglement.  And because every set ultimately contains itself and all others sets. So instead of saying every part of the universe is connected to every other part, it would be more accurate to say,

Every part of the universe not only contains every other part, it is every other part.

This is what the Holographic Paradigm has been saying for decades, except each part isn’t a lesser detailed version of the whole. Each part contains every other part – i.e. every part not only contains the whole, it is the whole.

Our experience of the infinite or the finite depends on how “far up” the hyperset network we are.The trick is describing how we went from this eternal hyperset network to the specific and more finite properties of our particular universe. The pathway from here to there should entail an increasing hyperset unity towards the “empty” set which contains all sets. And should this unity be described mathematically at least how it shapes our universe, then a grand unified theory will have been achieved. Mystics and psychonauts have been talking about this cosmic unity for ages.

To recap:

  1. Nothingness to Emptiness – We started out with an infinitely self-recursive set of nothing, which gives us both zero (nothing) and infinity (everything) simultaneously, but the results is still 0, with a degree of seperation of 0.
  2. Emptiness to Something– Then we create many different sets that contained themselves and other sets, giving us sets from 1 to infinity, but the result is still just one identical set, but with degrees of seperation of both 0 and 1.
  3. Something to Everything – Then we created many different sets that don’t contain themselves, but which contain others sets, which eventually might contain the original sets. So we get sets from 1 to infinity, with degrees of speration from 1 to infinity.

The animation is a simplified example of how self-recursion from a singleton can give rise to beautiful diversity and complexity.


So we go from nothing to something to everything. From unity to disunity (symmetry breaking), resulting in diversifcation of sets and complexification that starts to look like our early universe. Continue this diversification of sets long enough and you get the complex mathematical structures and hyper-dimensional fractalization, of which one variation set is our modern day universe. This is not at odds with the conscious observer created universe. The first set, the empty set could be consciousness itself – the void of Buddhism. The first empty set containing itself, is conciousness turning back on itself, obvserving itself. The empty vessel of Buddhism, the place of no form. See John Lilly’s Before The Beginning. From this perspective, set diversification is consciousness co-creating, making differences that make a difference.

Although I still don’t know the precise set complexification that resulted in our particular universal contants, what this does show is how both singleton/singularity/quantum recursions gives rise to space, time, matter and energy – a unification of Quantum Mechanics and Relativity – Quantized Space Time, or the “Theory of Everything” that remains the holy grail of modern physics.







Unified Field Theories

  • String field theory is a formalism in string theory in which the dynamics of relativistic strings is reformulated in the language of quantum field theory. This is accomplished at the level of perturbation theory by finding a collection of vertices for joining and splitting strings, as well as string propagators, that g…
  • Superstring theory is an attempt to explain all of the particlesand fundamental forces of nature in one theory by modelling them as vibrations of tiny supersymmetric strings. Superstring theory is a shorthand for supersymmetric string theory because unlikebosonic string theory, it is the version of string theory that…
  • M-theory is an extension of string theory in which 11 dimensions are identified. Proponents believe that the 11-dimensional theory unites all five 10 dimensional string theories and supersedes them. Though a full description of the theory is not known, the low-entropy dynamics are known to be…
  • Heim Theory – 12 dimensional unified physics theory gaining some traction.
  • D-Branes – In string theoryD-branes are a class of extended objects upon which open strings can end with Dirichlet boundary conditions, after which they are named. D-branes were discovered by Dai,Leigh and Polchinski, and independently by Hořava in 1989. In 1995, Polchinski identified D-branes with black p-brane
  • Supersymmetry
  • supergravity (supergravity theory) is a field theory that combines the principles of supersymmetry and general relativity. Together, these imply that, in supergravity, the supersymmetry is a local symmetry (in contrast to non-gravitational supersymmetric theories,
  • Loop Quantum Gravity – http://en.wikipedia.org/wiki/Loop_quantum_gravity
  • Loop Quantum Cosmology – http://en.wikipedia.org/wiki/Loop_quantum_cosmology
  • Spinors, Twistors, Roger Penrose
  • Symmetry breaking in physics describes a phenomenon where (infinitesimally) small fluctuations acting on a system which is crossing a critical point decide the system’s fate, by determining which branch of a bifurcation is taken. To an outside observer unaware of the fluctuations (or “noise“), the choice will appear ar.. – ** These infinitesimally small fluctuations are the differences that make differences in the hyperset network divergence – see also Laws of Form.
  • In particle physicssupersymmetry (often abbreviated SUSY) is a proposed symmetry of nature relating two basic classes of elementary particles: bosons, which have an integer-valued spin, and fermions, which have a half-integer spin. Each particle from one group is associated with a particle from the other, called it…
  • Holographic Principle – http://en.wikipedia.org/wiki/Holographic_principle  –> improvement on this theory is each set contains all the others, rather than just has information about the others connections.
  • Holographic Universe – Michael Talbot
  • Implicate Order – David Bohm
  • Grand Unification Epoch – In physical cosmology, assuming that nature is described by aGrand unification theory, the grand unification epoch was the period in the evolution of the early universe following the Planck epoch, starting at about 10−43 seconds after the Big Bang, in which the temperature of the universe was comparable to the charact…
  • In theoretical physics, a super-Poincaré algebra is an extension of the Poincaré algebra to incorporate supersymmetry, a relation between bosons and fermions. They are examples of supersymmetry algebras (without central charges or internal symmetries), and are Lie superalgebras. Thus a super-Poincaré algebra is a Z2 graded vector space with a graded Lie bracket such that the even part is a Lie algebra containing the Poincaré algebra, and the odd part is built from spinors on which there is an anticommutation relation with values in the even part
  • Planck Epoch – In physical cosmology, the Planck epoch (or Planck era) is the earliest period of time in the history of the universe, from zero to approximately 10−43 seconds (Planck time). It is believed that, due to the extraordinary small scale of the universe at the time,quantum effects of gravity dominated physical interactions..
  • Planck temperature, denoted by TP, is the unit of temperature in the system of natural units known as Planck units. It serves as the defining unit of the Planck temperature scale. In this scale the magnitude of the Planck temperature is equal to 1, while that of absolute zero is 0.
  • Planck units are physical units of measurementdefined exclusively in terms of five universal physical constantslisted below, in such a manner that these five physical constants take on the numerical value of 1 when expressed in terms of these units. Planck units have profound significance for theoretical
  • Yang–Mills theory is a gauge theory based on the SU(N) group, or more generally any compact, semi-simple Lie group. Yang–Mills theory seeks to describe the behavior of elementary particles using these non-Abelian Lie groups and is at the core of the unification of the Weak and Electromagnetic force (i.e. U(1) × SU(2)) as well as Quantum Chromodynamics, the theory of the Strong force (based on SU(3)). Thus it forms the basis of our current understanding of particle physics, the Standard Model.
  • Particle Physics and Representation Theory – The connection between particle physics and representation theoryis a natural connection, first noted in the 1930s by Eugene Wigner, between the properties of elementary particles and the structure of Lie groups and Lie algebras. According to this connection, the different quantum states of an elementary particle give…
  • Calabi–Yau manifold, also known as a Calabi–Yau space, is a special type of manifold that is described in certain branches ofmathematics such as algebraic geometry. The Calabi–Yau manifold’s properties, such as Ricci flatness, also yield applications in theoretical physics. Particularly in superstring theory, the…
  • Triality – John Frank Adams (1981), Spin(8), Triality, F4 and all that, in “Superspace and supergravity”, edited by Stephen Hawking and Martin Roček, Cambridge University Press, pages 435–445.

Unification Mathematics/Philosophy of Relativity and Quantum Theory

Famous Theorists – String and Loop Quantum, etc.

  • Chris Isham – theoretician, may be the person to contact about hyperset networks
  • Ed Witten – Super smart guy at IAS at Princeton
  • Paul Townsend
  • Roger Penrose
  • Charles W. Misner is an American physicist and one of the authors of Gravitation. His specialties include general relativity andcosmology. His work has also provided early foundations for studies of quantum gravity and numerical relativity.

General Relativity

Quantum Mechanics

  • Superposition Principle – two states simultaneously – is and is not simultaneously – hypersets can have sets that are not themselves.
  • Double Slit Experiment
  • Heisenberg’s Uncertainty Principle
  • Einstein Rosen Podolsky Experiment
  • Bell’s Theorem
  • In quantum mechanics, the Wigner–Weyl transform or Weyl–Wigner transform is the invertible mapping between functions in the quantum phase space formulation and Hilbert space operatorsin the Schrödinger picture. Often the mapping from phase space to operators is called the Weyl transform whereas the mapping fr

Quantum Field Theory (QFT, QED, QCD)

QFT – Quantum mechanics at relativistic speeds (i.e. particle physics).

  • Constructive Quantum Field Theory – In mathematical physicsconstructive quantum field theory is the field devoted to showing that quantum theory is mathematically compatible with special relativity. This demonstration requires new mathematics, in a sense analogous to Newton developing calculusin order to understand planetary motion and classical gravi…
  • Non-Commutative QFT – Heisenberg was the first to suggest extending noncommutativity to the coordinates as a possible way of removing the infinite quantities appearing in field theories before the renormalization procedure was developed and had gained acceptance. The first paper on the subject was published in 1947
  • The quantum electrodynamic vacuum or QED vacuum is the field-theoretic vacuum of quantum electrodynamics. It is the lowest energy state (the ground state) of the electromagnetic field when the fields are quantized. When Planck’s constant is hypothetically allowed to approach zero, QED vacuum is converted to classical vacuum, which is to say, the vacuum of classical electromagnetism.

Sub Topics

  • Geometrodynamics – http://en.wikipedia.org/wiki/Geometrodynamics
  • S-duality (also a strong–weak duality) is an equivalence of two quantum field theories or string theories. An S-duality transformation maps states and vacua with coupling constant g in one theory to states and vacua with coupling constant 1/g in the dual theory…
  • compactification means changing a theory with respect to one of its space-time dimensions. Instead of having a theory with this dimension being infinite, one changes the theory so that this dimension has a finite length, and may also be periodic.
  • Positive Energy theorem – in 1984 Schoen used the positive mass theorem in his work which completed the solution of the Yamabe problem.
  • Tolman-Oppenheimer-Volkoff limit
  • Renormalization – In quantum field theory, the statistical mechanics of fields, and the theory of self-similar geometric structures, renormalization is any of a collection of techniques used to treat infinities arising in calculated quantities.
  • The positive mass theorem was used in Hubert Bray’s proof of the Riemannian Penrose inequality.
  • In physics, the quark model is a classification scheme for hadrons in terms of their valence quarks—the quarks and antiquarks which give rise to the quantum numbers of the hadrons.
  • The quark model was originally just a very good classification scheme to organize the depressingly large number of hadrons that were being…
  • Two Time Physics – 2 dimensions of time.

Mathematical Domains

7 States of Matter Chart

  • Quark Matter – Quark-Gluon Matter or Plasma or QCD matter refers to any of a number of theorized phases of matter whose degrees of freedom include quarks and gluons. These theoretical phases would occur at extremely high emperatures and densities, billions of times higher than can be pr
  • Plasma
  • Gas
  • Liquid
  • Solid
  • Bose-Einstein Condensate
  • Fermion Condensate

Items and Tidbits

  • Negative energy/mass, exotic energy/mass, differences?
  • Absolute hot is a concept of temperature that postulates the existence of a highest attainable temperature of matter. The idea has been popularized by the television series Nova. In this presentation, absolute hot is assumed to be the high end of a temperature scale starting at absolute zero,
  • Krasnikov tube – Krasnikov tube is a speculative mechanism for space travel involving the warping of spacetime into permanent superluminaltunnels. The resulting structure is analogous to a wormhole with the endpoints displaced in time as well as space. The idea was proposed by Serguei Krasnikov in 1995.
  • Exotic Stars
  • Preons
  • Gluons
  • Glueball – In particle physics, a glueball is a hypothetical compositeparticle. It consists solely of gluon particles, without valencequarks. Such a state is possible because gluons carry color charge and experience the strong interaction. Glueballs are extremely difficult to identify in particle accelerators, because they…
  • Gravitons and Gravitinos
  • Quark Matter
  • Quark Nova – A quark-nova is the violent explosion resulting from the conversion of a neutron star to a quark star. Analogous to a supernova heralding the birth of a neutron star, a quark nova signals the creation of a quark star. The concept of quark-novae was suggested by Dr. Rachid Ouyed (University of Calgary, Canada) and Drs.
  • Strange Matter
  • strangelet is a hypothetical particle consisting of a bound stateof roughly equal numbers of updown, and strange quarks. Its size would be a minimum of a few femtometers across (with the mass of a light nucleus). Once the size becomes macroscopic (on the order of metres across), such an object is usually called
  • Lattic QCD –
  • Tachyon condensation is a process in particle physics in which the system can lower its energy by spontaneously producing particles. The end result is a “condensate” of particles that fills the volume of the system. Tachyon condensation is closely related to second-order phase transitions.
  • Imaginary time is a concept derived from quantum mechanics and is essential in connecting quantum mechanics with statistical mechanics.
  • Imaginary time can be difficult to visualize. If we imagine “regular time” as a horizontal line running between “past” in one direction and “future” in the other, then imaginary time wo
  • Multiple Dimensions of Time – The possibility that there might be more than one dimension oftime has occasionally been discussed in physics and philosophy.  ** An Experiment with Time by J.W. Dunne (1927) describes anontology in which there is an infinite hierarchy of conscious minds, each with its own dimension of time and able to view even
  • Photodisintegration is a physical process in which an extremely high energy gamma ray is absorbed by atomic nucleus and causes it to enter an excited state, which immediately decays by emitting a subatomic particle. A single proton or neutron or an alpha particle is effectively knocked out of the nucleus by the.
  • R-Process – The r-process is a nucleosynthesis process, that occurs in core-collapse supernovae (see also supernova nucleosynthesis), and is responsible for the creation of approximately half of the neutron-richatomic nuclei heavier than iron. The process entails a succession of rapid neutron captures (hence the name r-process) b..
  • pentaquark is a hypothetical subatomic particle consisting of four quarks and one antiquark bound together (compared to three quarks in normal baryons). As quarks have a baryon number of +, and antiquarks of −, it would have a total baryon number of 1, thus being classified as an exotic baryon.
  • The skyrmion is a hypothetical particle related to baryons. It was described by Tony Skyrme and consists of a quantum superposition of baryons and resonance states…
  • Metalogic is the study of the metatheory of logic. While logic is the study of the manner in which logical systems can be used to decide the correctness of arguments, metalogic studies the properties of the logical systems themselves. According toGeoffrey Hunter, while logic concerns itself with the “truths of logic,


Exotic Mesons – Non-quark model mesons include

  1. exotic mesons, which have quantum numbers not possible for mesons in the quark model;
  2. glueballs or gluonium, which have no valence quarks at all;
  3. tetraquarks, which have two valence quark-antiquark pairs; and.. In particle physics a tetraquark is a hypothetical meson composed of four valence quarks. In principle, a tetraquark state may be allowed in quantum chromodynamics, the modern theory of strong interactions. However, there has been no confirmed report of a tetraquark state to date. Any established tetraquark state would
  4. hybrid mesons, which contain a valence quark-antiquark pair and one or more gluons

Links and Tidbits