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HyperFlight Pythagoreans and their methods for the organization of matter There are many elements in nature that compete with each other. Physical elements, rather than being created in conflict, are formed in balance in one of the hyperstates shown here..
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In the Pythagorean tradition the universe is running on Natural (whole) numbers and on rationing. Numerology, then, was the way of looking at just about everything. We are not staying with or departing from tradition. Yet, the picture of the HyperStates is mostly about integers and near-integers. One hyperstate is a ratio. One other hyperstate, although it is computable and potentially real, does not seem to actually form. As of now, there are ten realizable and observed topologies in the cosmos |
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There is much similarity between the colorful dots of hyperstates and the Tetractys of Pythagoras. Verbal interpretations of the Tetractys from the Pythagorean tradition such as the "universal order" in literal terms and "nature's spring" in the figurative sense are indeed close to hyperstates. A new platform, if true, is not the end but the beginning of the next building phase.
HyperStates start with Tetractys of Pythagoras. It is helpful to appreciate that tetractys is a numeral 10 rather than just a count of 10.
One (blue) state is added and all eleven states are placed on one facet of the tetrahedron. We arrive at the triangular pyramid geometry.
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Fundamentally, numbers come first. The Tetractys with 1, 2, 3, and 4 dots also refers to 0, 1, 2, and 3 degrees of independence because 1 is associated with a dot, 2 with a line, 3 with an area (plane), and 4 with volume (some say solid). Degrees of independence are, again, numbers. Degrees of independence form the fundamental constructs for geometry. Topology (building things) is a static subset of geometry. Dots of the Tetractys plus one (blue) dot form hyperstates. Hyperstates are about the creation of the real environment that is tractable (non-chaotic) and that has its origin in the virtual domain, which is oftentimes called hyperspace or ether or "fire." Hyperspace is intangible (invisible) and is not explicitly shown in the HyperStates picture because HyperStates is about the one single facet of the triangular pyramid where all real (visible, hard) topologies manifest. We can represent the hyperspace as an eye and put it on top, which results in a triangular pyramid of tetrahedron with the eye at the apex. Presently, the HyperStates picture includes three axes that project the real plane from the hyperspace or from one's eye. The projection from one's eye reveals the individual and the collective way of building the real world on the real plane because it is our cumulative knowledge that continues to compute and create the ever growing and organized universe. Although the solutions for the axial parameters converge toward integers, the integer value is not fully reached but their sum adds up to three exactly*. The sum being integer three stems from the fundamental maxim of the real domain, which deals with tractability limits. (Tractability is a subset of computability.) If we define the triangle as the "summing triangle," then the outer hyperstates would be on the triangle's edge. The triangle can also be defined axially as the "bounding triangle," in which case the outer hyperstates would be just inside it. In either case, all hyperstates are in the plane formed by the triangle and that is the reason for calling the triangle the template of the real plane. Technically, each and every point on the real plane is a solution but because the plane is also a logical plane, there is no measurement metric associated with it. The creation of realities, then, has no prescribed size. If we apply integers to the real plane, the summing of 3 out of 4 numbers (0, 1, 2, and 3) in a way that results in integer three yields ten integer-summing sequences, which correspond to 10 hyperstates. The presentation (orientation, rotation) has no overwhelming preference. The spherical galaxy hyperstate is at the top corner as magenta. It may be said that spherical galaxy's organization is closest to the "harmony of spheres." However, bodies have no independent movement in hyperstate 3,0,0 because they all move in synchrony. Orbits also are not purely spherical but have a large degree of symmetry. Hyperstate 0,3,0 could also claim the top and the sun is indeed an awesome sight yet the sun can also go nova. Hyperstate 0,0,3 is a simple one and, while common and uneventful, there is opportunity there for new growth because the growth is mostly localized. In the alchemical tradition a discourse on orientation would fill many pages. [If your ship is in hyperspace, you do not want to materialize in 0,3,0. But if you are building a centralized organization, that is the place to be..] Hyperstate 3,0,0 has periodicity while 0,3,0 does not. Hyperstate 0,0,3 has translational (linear) repeatability that can be called periodic as well since the velocity there is constant. In summary, Hyperstates' triangular plane has neither the "top" state nor a direction in which it is pointing (up or down or sideways). Organized topologies also hold on the atomic scale and it is likely we find additional hyperstates there in addition or subtraction to those shown here. It is also likely that periodic and non-periodic (event-driven) hyperstates can be realized on the atomic scale. On the atomic scale the hyperstate realization hops around because the plurality of electrons can instantly transition into another computable assembly on the real plane where tractability holds (the real and temporary states are at times called eigenstates). Much promise is in understanding the tractability of the core, for completely new elements could be created. A [easy] case can be made that the core eigenstate is periodic and that its period is constant. On the cosmic (macro) scale, the manifestation of a particular hyperstate is the solution that is, a particular hyperstate realization is the last step in itself. Hyperstates do not change or evolve because they are solutions (final condensate) resulting from unbounded and concurrent computations of the whole. One can argue that a gradual change from a dual-sun system to a sun-planet system can be called evolution but in fact it is a two-body system that is the one and the same hyperstate. New hyperstates, though, are created every day through hyperspace and that is the norm (Pythagorean spring, source) of universe creation and expansion. When a sun parts into a dual sun system a new hyperstate is formed. When a new sun forms from ether [Atum's mound, scarab/spin], another new hyperstate is formed. Because the hyperstate is the final solution, there are no migrations or evolutions. There may be logical similarities such as a discus, ring, or one-body orbit (moon or planet) topology states but there are no in-betweens and this is because the solutions coagulate around integers. We will not find two or more planets in an identical orbit where there would be a gradual migration to a ring of planets. Similarly, we will not find a planetary ring that would gradually become a moon because, again, the ring is a particular hyperstate that is a final solution yielding ring topology. Finally, we will not find a discus that would reduce into a body. When the hyperstate is not composed of (near) integers, as is the blue dot, we see greater topological similarity as in the bar and spiral galaxies. A good way of looking at hyperstates is that it is a framework for real solutions. A particular hyperstate is a tractable topology and such topology (such solution) is independent of scale. We can find a particular hyperstate manifestation in a planetary system, not in solar system(s), but then it forms again in a galactic system. Scale independence results from nonlocal computational aspect of quantum mechanical gravitation.
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Pythagoreans do not dwell on and do not fancy descriptions of reality because the Pythagorean way is about the creation of reality. The making of reality is not about pretensions but it is about the understanding of pretensions. Pythagoreans do not claim that some parts of the universe are delusions, either. The creation of real and stable and objective systems, then, requires a thorough understanding of the virtual domain that deals with the infinite superposition and relation of virtual energies, each of which brings in a measure of relevance. Conflicts resolution such as those stemming from a war, global warming, or financial markets instability call for stable solutions that -- short of outright destruction (usually possible) -- are not obvious or straightforward. From among the myriads of plausible answers Pythagoreans find the ones that are executable and, in the end, tractable. |
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* If you are familiar with incommensurable/irrational numbers and how their discovery created consternation among some non-Pythagoreans, consider that it is the sum that yields the hyperstate solution. The individual components (addends) are integers, near-integers, rational numbers, and reduced (truncated, rounded, fractioned) irrational numbers -- that is, the individual components of the hyperstates are real numbers. (Quantum mechanical aspects in the Quantum Pythagoreans book deal with yet another mechanism besides truncation and rounding -- that of the ancient Egyptian fractions.) Perhaps the best way of starting on irrational numbers is by taking a look at the golden ratio with one original application, or It cannot be exact from March, 2005, DSSP topic [advanced]. |
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What is behind The Numbers |
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Hyperstates framework is difficult, though not impossible, to figure out. The thing about hyperstates is that in the process of figuring it out you will find the answer to something that is important to you. Your solution may be personal or it may have wide applications. While it is possible to teach "everything" about hyperstates, the idea is that your solution is the most important solution. |
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If you look at the missing axial parameters as a mystery, you may be able to figure out the parameters and thus the maxim. The secret behind the secret is not the lock that would be in front of the secret, for once you figure it out you will know there is no better lock than the engagement of the mystery. In fact, there is no lock but an interlock that creates order out of the competition of the triad. The Hyperstates interlock is so robust it cannot be stolen or given away, so extensive it cannot be memorized, so unique you will know right away, so practical it can be applied every day, and so logical that even a wrong answer bespeaks of a correct concept. Should you come upon a person who claims the earth is flat and square while showing you a triangle, you can laugh and enjoy the conversation while, maybe, you will be able to appreciate there is more than one way to the center of the maze. For there are benefits in a discourse on square portholes when it comes to building ships and transforming new energy sources. Overall, Pythagoreans may find HyperStates a significant yet natural extension of Tetractys. Perhaps you can wear it as an amulet, now that you feel the organizing power of Tetractys. |
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Living with Numbers |
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Pythagoras and the Pythagorean tradition puts numbers first. This may seem difficult to some and indeed Aristotle had a field day poking fun at Pythagoreans. The basic aspect to 'All is number' is that each number can be constructed -- that is, each number can become. Each number, then, can be actualized. A number is not at the core, it is the core. A number can be written on a piece of paper and then the number is a representation of something real, irrational, or transcendental. (Irrationals and transcendentals eanble the formation of virtual variables.) Yet numbers can be applied to actually come alive and that is the meaning of 'All is number.' Pythagoreans not only use numbers to measure somebody else's creation -- they create new stable and alive entities with numbers. A good question is: What is the number or numbers the human is made of? [Actually, it is a root of a number.] |
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1)
Real numbers Real numbers also spawn the degrees of independence (some say degrees of freedom). Pythagoras' Tetractys also includes the representation of the degrees of independence as four levels: Top dot is 0D (a geometric point), two dots on the next level is 1D (a line), three dots on yet another level is 2D (a plane), and four dots on the last level is 3D (a volume). Pythagoras' Tetractys also creates geometry through geometric constructs of degrees of independence. A most powerful finding here is that each level of increasing freedom provides a different context within geometry. This aspect is not presently understood, as all mathematicians try to treat geometry uniformly and "as a whole" where dimensions are "just trivial extensions." Pythagorean geometric concepts provide powerfully simple answers to very complex problems. For example, the question "What is and where is the difference between a point and a line?" seems almost impossible to answer objectively. This is the same question as "what is the minimum separation between two points so that we can connect them and call it a line?" Yet there exists a real answer that also yields insight on the smallest possible separation between atoms. |
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2) Incommensurable numbers Mainstream math guys got it mixed up and to them the incommensurables and irrationals are synonymous. However, transcendentals are incommensurables that exist on a curve or, by the same token, they exist in 2D or 3D. Pi is the prime example of a transcendental number. Irrationals are incommensurables that are straight -- that is, they exist in 1D. Construction-wise, transcendentals need a pyramid for their actualization while all irrationals are constructible through the Pythagorean Theorem.
3)
Virtual numbers The group theory can be applied to establish transition operations between real and virtual numbers because the operation of transformation deals with both the variance and invariance of number's properties. (Pythagorean even-odd grouping of numbers was a good start.) Virtual numbers' positive and negative values are generally (but not always) subjective. Virtual variables "fold in about zero" when these transform (reduce) into real numbers. This is analogous to folding-in of a hand held fan while the pivot (zero) becomes excluded. A scientist has difficulty understanding the virtual variables because the QM wavefunction is treated mathematically as but a technical parameter while its actual (though virtual) existence is denied. In the Pythagorean tradition the virtual number is most likely the 'undefined dyad' and we interpret the characterization "undefined" as 'nonlocal' or 'spread out' in the quantum mechanical context of the wavefunction having even symmetry (such as the photon).
4) Circumpositional numbers
Applications-wise, The Western preoccupation with reality handicaps incommensurables' applications. The free energy (zero-point energy) effort, however, got a good start in the US and may yet rebound. In the East, incommensurables are used mostly for personal empowerment and healing. Incommensurables can be actualized (come alive) only through its construction. So, the square root of two is an irrational number that is, however, not actualized per se. Moreover, some people think 1.41421356 is the same thing as, or close enough to, the square root of two, but such number is a real number and cannot be actualized as an irrational number as it no longer carries the infinite mantissa. Incommensurables are in the virtual domain but their means of construction can be real, as Pythagoras discovered. There are other aspects to the actualization and this introduces yet another subset of irrationals. Overall, a very intriguing number group. The squaring of the circle attempts to resolve the differences between curving and straight geometries -- that is transcendentals and reals -- think atomic construction with adaptive orbitals. |
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Relating Numbers Numerology is not strict and, for example, two entities produce one relationship. Numerology can be context-dependent when, for example, the interaction among three variables results in tractable matter while three bodies are in general chaotic -- the number three can stand for both stability and chaos.* Numbers, then, do not exist only in standalone fashion because numbers also spawn the operators (relationships) and degrees of independence. Perhaps the best example of the operator is in the definition of Pi. Once a group of numbers reaches a stable system, Pythagoras calls it the Monad. Monad is 'one-sum', a unique summing sequence or grouping of numbers that relate through the operators. The simplest monad is a triad -- that is, you need at least three numbers or three variables to make something lasting out of it. Indeed, three parameters build the whole real universe. The mystical aspects are treated in alchemy, which deals with transformations and invariance -- that is, a transforming or "becoming" monad has some of its numbers variant and some invariant (see group theory). Monad is synonymous with 'object,' 'entity,' or 'conglomerate.' A Monad is always a real entity that is commensurable with any other monad. (Self-Test:-) If your ears perked up on this paragraph, you are doing well. Monad is also the first counting real number one issuing from the first real thing. The numerology (coming up) has a qualitative division on the interpretation of numbers as these apply to the real and the virtual domain. You may note that letters issue from numbers in that the vowels have even symmetry**. In all Latin vowels the even symmetry survives, although in the letter 'E' the even symmetry survives via the horizontal axis. |
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* Religion and mythology deals with this through the multiple talent of the Personalities, or Aspects, of gods. Shiva can be creator at times and destroyer at times. ** Odd symmetry is a symmetry about a point (origin) while even symmetry is a symmetry about a line (axis). Symmetry contains reflected duplication about axis or rotated duplication about a point. All Latin vowels preferentially carry even symmetry. Pythagoreans call even numbers feminine and "inclusive" while odd numbers are masculine and "exclusive." The Tibetan alphabet is highly developed along both symmetries. We apply incommensurables/irrationals in an article on free energy because geometries have a pivotal role there. When you hear 'pivotal,' think spin. We also have an article on ether. |
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Pythagorean College Numerology |
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Universal Harmony |
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While many authors speak of the harmony of the universe or about the universal balance, the basic idea behind harmony is that it takes two sounds before these can be called harmonious or disharmonious. Any two notes of the Pythagorean (Western) octave are for the most part harmonious. The difficult part is that -- while we can agree on harmonious or disharmonious sounds -- there is no written procedure or mathematical logic that would allow us to determine ahead of time if the tones will be one way or the other. However, in the article on the five pointed star orbit, which is made from two other orbits (Venus and Earth), there is enough disclosure to begin to appreciate what it takes to be in harmony. To build the universe, the harmony is a requirement in that it makes lasting planetary orbits or galactic structures. You do not have to make it harmonic but then the system will be rudimentary, degenerates, or comes apart. The book Quantum Pythagoreans explains what makes two numbers -- or two orbits or two frequencies -- harmonious or disharmonious via a formula. You will then be able to predict which notes are harmonious before you play them. The harmony is then also expressed geometrically for the reader as the stars. The golden proportion is a unique pair of two numbers -- one incommensurable (irrational) and one rational. Because the ratio and other relations of these two numbers also have interesting arithmetic and geometric properties, they should be included in the Pythagorean style harmony analysis. We have a page on the golden proportion with new application and (of course) a relationship to the Great Pyramid. The unreduced real number of the golden proportion is 2, and it is likely the number 2 (or ½) is representative of the octave, for octave doubles the parameters such as frequency or spatial distance and deals with (relates to) square numbers. |
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The Pythagorean Theorem |
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The Theorem relates the squares made from the sides of any right-angle triangle. The Theorem is very old and it is then easy to speculate about what really happened back then. Regardless, it is not difficult to show the Theorem originated with Pythagoras, for the discovery of the irrational numbers is linked to Pythagoras without much disputation. But first we look at one conclusion in this excerpt from John Burnet's book Early Greek Philosophy: It is easy to see how this triangular way of representing numbers would suggest problems of a geometrical nature. The dots, which stand for pebbles, are regularly called "boundary-stones" (horoi, termini, "terms"), and the area they mark out is the "field" (chôra). This is evidently an early way of speaking, and may be referred to Pythagoras himself. Now it must have struck him that "fields" [2D] could be compared as well as numbers, and it is likely that he knew the rough methods of doing this tradition in Egypt, though certainly these would fail to satisfy him. Once more the tradition is helpful in suggesting the direction his thoughts must have taken. He knew, of course, the use of the triangle 3, 4, 5 in constructing right angles. We have seen (§ XI) that it was familiar in the East from a very early date, and that Thales introduced it to the Hellenes [Greeks], if they did not know it already. In later writers it is actually called the "Pythagorean triangle." Now the Pythagorean proposition par excellence is just that, in a right-angled triangle, the square on the hypotenuse is equal to the squares on the other two sides, and the so-called Pythagorean triangle is the application of its converse to a particular case. The very name "hypotenuse" (hupoteinousa) affords strong confirmation of the intimate connection between the two things. It means literally "the cord stretching over against," and this is surely just the rope of the "arpedonapt." It is, therefore, quite possible that this proposition was really discovered by Pythagoras, though we cannot be sure of that, and though the demonstration of it which Euclid gives is certainly not his. The previous paragraph is a scholarly method for researching the past. But there is another and a simple way to link the Pythagorean Theorem to Pythagoreans.
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You, A Pythagorean |
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If you think you are a Pythagorean, chances are you are. It is not easy to arrive at such designation without joining a real organization. But you know that by truth you know conceit and that is how the truth prevails. The Pythagorean way of learning, teaching, and building does not deal with suffering, for conflicts exist as the imbalance that leads to the next level of the truth. The building part, moreover, establishes the truth in the objective realm. Enjoy. You might not think yourself a Pythagorean but others may think you are. Galileo would not think of being a Pythagorean but his discoveries and his mathematical thinking earned him a Pythagorean label from no other than the members of the Inquisition. Enjoy. |
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Mother Goose of Tetractys |
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Presently, the Pythagorean Theorem mnemonic exists as "Pythagoras' Trousers," which is a tie-in between Pythagoras' attire (unusual at the time) and his theorem in its geometric form. It is quite likely the Pythagorean numerology of small numbers (1-10, say) was designed to introduce Pythagorean concepts to larger audiences -- not unlike the verses of Mother Goose that combine the poetic and magical qualities of English: "..and the cow jumped over the moon." In the next step the numerical compositions are put together to make stable creations (monads). |
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It is about the
atom staying together
It is the physical
plane of emerging matter
Something nice but
don't know what
Whimsical
extension of Pythagoras' Tetractys
Reminds me of the
ancient alchemy of sulphur, salt, and mercury
Something
separated and joined at the same time --
One, two, three, four, |
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Go Added paragraphs on Irrationals and Becoming July 2005. © 2002 -- 2010 Backbone Consultants Inc. Copyrights Information Last update January 2, 2010 |
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