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Modeling the Aggregate Structure of Configuration Space

III: The Hidden Properties of a Four Dimensional Flat Space

Devin Harris
July 14, 2003
 

The last chance to discover a finite Universe vanished with the return of data from the Boomerang and Maxima balloon born telescopes [4][5], and the Wilkinson microwave anisotropy probe further [25][26] verified the geometry of deep space is flat, indicating profoundly, with a forgivable suspension of time dilation, that if we could observe galaxies at a common age the universe would extend infinitely in all directions without end. The geometry of the universe is now said to be flat although we necessarily must suspend what we understand of quantum mechanics also. What would not be forgivable is limiting one's definition of physical reality to any particular time reference.

The case for a mode of timelessness [27][28][29][30][18] is no less compelling than the case for a many-worlds universe, and I would argue that only the profound nature of both positions have delayed their inclusion into science. We no longer need question whether the universe is infinite or not, we might merely question where other universes are located in some ultimate reference of physical reality, a reference perhaps of all possible times, from a God's eye perspective. Only then, we have arrived at a question that seems less scientific or at least far more difficult to answer. How infinite is the Universe? Is existence bounded in any way? Evidence for an infinity of galaxies or space-time bubbles was not entirely unexpected, but what of the utter chaos of possibilities, all conceivable universes and beyond, most completely unlike our own? Are there any identifiable boundaries to what exists?

As to there being any structure to the whole of the greater infinite, I would like to direct us away from imagining many universes to suggest that the existence of all possible states may be the extent to which existence is radically infinite. I propose that the superstructure of all states serves as a foundation and limits the dimension of temporality to a four dimensional multiverse of space-time bubbles. This theoretical work so far indicates the anthropic principle is not a correct hypothesis for why we experience this particular universe.

A concept that resulted from the theory of relativity was that all of space-time forms a unified four dimensional existence. In regards to Minkowski's space world, in his book Relativity [31], Einstein wrote, "Since there exist in this four dimensional structure no longer any sections which represent "now" objectively, the concepts of happening and becoming are indeed not completely suspended, but yet complicated. It appears therefore more natural to think of physical reality as a four dimensional existence, instead of, as hitherto, the evolution of a three dimensional existence." Einstein's belief in the unification of time was expressed in a letter to the family of his lifelong friend Michele Besso, who died shortly before his own death. Einstein wrote that although Besso had proceeded him in death it was of no consequence, "for us physicists believe the separation between past, present, and future is only an illusion, although a convincing one." [32] Years later Richard Feynman came to define time as a direction in space [33], and most recently Stephen Hawking has become increasingly adamant in expressing that the universe existing in imaginary time is self contained and has no boundary [34].

It is held here that the foundational matrix of a four dimensional existence doesn't evolve and is even unable to change, it simply is. In this modality, there is no distinction between the words existence and time. We can refer to this as timelessness or as a primary reference of time which has no beginning, middle or end. I sometimes define this time as one enormous moment. The physicist Julian Barbour named timelessness Platonia in his book The End of Time [18], which calls for a timeless perspective in physics. And the philosopher Huw Price refers to a related perspective as the view from nowhen [35]. Yet clearly, the universe viewed from a perspective of timelessness, it is not easy to reconcile how we so convincingly experience a distinct moment of now and clearly perceive change, be it illusion or not.

It is self evident that our regular reference to time includes two distinct components, physical existence and change. Any physical system must primarily exist, and by existing establishes the primary mode of time which we experience as the now. The component of change in ordinary time could conceivably be a secondary component which is no less real than the first component, just necessarily relative. This secondary component embedded in a four dimensional existence has two evident sub-components. One is the necessity of a linear string-like path extended across the permanent landscape. The path of a dynamic system, like a story in a book, could conceivably be solidly imprinted into a static existence. However, like any story in a book, there must be a sort of binding which fuses the multiplicity of pages. The momentary states of a system must be fused into linear form, that form being at very least our temporal experience. I shall refer to this as the linear component or as linear time.

Simultaneously, the time of change requires a transition through unique states or patterns. There must exist differences from point A to B necessarily lateral to the linear evolution of time. Each state must possess a distinct identity apart from others along the linear path. Without an independent identity there could not be the temporal experience of a singular present so there would not be for us the illusion that existence evolves, as is commonly assumed. We can make reference to the necessary transition from state to state as the lateral component of time. It should be noted that like the four dimensional existence itself, each quiescent state is without beginning or end, and is thus unable to contribute any measurable time duration. I shall refer to this as the lateral component or as lateral time.

The problems with the block universe view [9][10][11][36] or multispatiality [37] have been concerned with how it is possible that many individual blocks of space which are necessarily distinct dimensional frames can simultaneously be spatially linked to form a fourth dimension of space which we refer to as time. Any fused series of spaces form a whole space and thus would seem to forfeit the original separateness. If we then maintain each state as an individually distinct dimension, like a series of photographs, there is no indication of why we experience continuity and especially order between multiple frames of time.

The problem of trying to reconcile the two components and the problem of trying to reconcile our experience of time with a timeless existence is the same paradox faced in resolving the distinction between quantum theory and the general theory of relativity. At the macro-scale we observe objects to move along linear and continuous paths, and in knowing the position and momentum can predict the future or past. At the micro-scale it is not possible to decipher both position and momentum, and we conclude that particles travel as a wave from one position to the next without having a definite position between points A and B [38].

My suggestion here is that the focus should not be upon how such spaces are linked, but instead how such spaces are maintained discretely in nature as individually distinct. If we assume a spatial holism and then ask what separates one state from another, the question is then not unlike other spatial issues regarding the relative relationship between two locations in space or different references of time. Note that there has never been an intuitive rejection to the integration of two dimensional slices of space into a three dimensional continuum, and likewise there is no reason to expect that three dimensional blocks would not be linked naturally to form a four dimensional spatial continuum.

An advanced conclusion then from inducting absolute zero into the SOAPS, primarily based on the new construct of symmetry order, is that in addition to all the ordinary expected directions embedded within and constructing the continuity of a three dimensional block of space, there also exists directions in space which travel across or through the existing multiplicity of all possible states. I submit that certain configurations of three dimensional spaces are naturally interconnected, forming a four dimensional matrix, which we from our internal location refer to as time or space-time. These directions in space are no less natural and inevitable than those which build a three dimensional continuity, except for the critical feature that each single direction in four dimensional space probabilistically constructs the lateral component of its surrounding conditions relative to itself. In essence, each linear direction in four dimensional space constitutes a unique space-time bubble, and since each observer invariably surrounds a linear path in the four dimensional matrix, the lateral component is composed relative to each observer. This construction would explain why an observer in a four dimensional system simultaneously experiences quantum mechanical and relativistic properties and in that such properties arise from the physics of space indicates that such properties are not exclusive to observers.

The resulting four dimensional volume is structured systematically in reference to configuration space or superspace [39] and that volume is unique from any contributing three dimensional volume and also unique from the matrix superstructure. Each linear path, rather than traveling freely instead encounters the inherent probabilities that exist within state space relative to its present state. Applying the model of state space proposed, each linear path inevitably begins confined by grouping order in a state denotable as positive or negative, and in escaping is probabilistically directed toward becoming neutral. The overall cosmology of this model predicts there are two opposing cosmological arrows of time [40], one producing a positive volume of space containing matter and the other producing a negative volume containing a stable anti-matter, and of course each system is inseparably connected to the evolution of the other and the sum of the pair equals the greater whole zero.

This formula should be particularly enticing because if we can adequately describe space-time as a fourth dimension of space it would explain why we experience physical reality as we do, not from the anthropic premise, but rather because this particular finely tuned universe we live in is the fourth spatial dimension. If proven it would reasonably eliminate all the many universes with different constants that otherwise might exist, excepting the fifth, sixth, seventh spatial dimensions and so on that can exist in hierarchy within the first four dimensions. Everything physically existent would be reducible to directions in space.

Accelerating Expansion

With cosmological expansion accelerating the outer horizon of the space-time bubble breaks away from time zero and begins to shrink inward until distant galaxies begin to accelerate beyond our time reference. As if the beginning of time were being swallowed by a cold black hole, continued acceleration sucks the majority of galaxies beyond an outer event horizon. Even the background radiation would be stretched flat, dropping the temperature of the collapsing edge of the universe to a once hypothetical absolute zero. Erasing the rich history of the universe, eventually the volume of space-time shrinks inward to the local group, then collapses inward to the gravitational curvature of our own milky way galaxy.

As to the final fate of the milky way universe, as if the cosmos has a sense of humor, again we find ourselves stonewalled by a deciding critical density w equals -1, with the universe riding the line between two dramatically different futures. Since the acceleration was discovered it has generally been maintained that gravity would hold off a final collapse to zero for an infinite period of time, in which case the galaxy would survive. In the equation-of-state parameter w =  p/ρ, describing dark energy, the ratio of pressure p to energy density ρ required for acceleration is < -⅓. and has been generally assumed to be ≥ -1. This modified version of the endless heat death scenario first met direct opposition when Parker and Raval in 1999 presented a new theory to explain acceleration, a simple quantized free scalar field of low mass (VCDM) model [40], and later predicted w is < -1 [42]. Discussion on the dark energy density [43] heated up this year with data indicating w is indeed very near -1, culminating in March 2003 when Robert Caldwell, Marc Kamionkowski, and Nevin Weinberg introduced the Big Rip Scenario [44], where a dark energy density dubbed phantom energy [45] by Caldwell increases with time, and eventually becomes infinite in finite time.

Even if w is only equal to -1 cosmic acceleration is exponential, however if w exceeds the critical value of1, the future is no longer in question since neither gravity nor any other force will be able to restrain the collapse of the absolute cold event horizon. The density of ordinary matter and energy would exponentially decrease with time, finally becoming zero in finite time. Caldwell indicates the time-scales at which acceleration of phantom energy tears into the milky way, ripping apart the nearby stars and planets, the Earth, and finally all atomic material. Caldwell estimates phantom energy would end the universe as we know it in approximately 22 billion years, also noting indirectly that the Big Rip scenario may result in time ending at the ultimate singularity [44].

As is presently thought, the source of accelerating expansion is a property of space itself and so not evident in the probabilities of state space. Some acceleration to expansion is built into the process of convergence occurring as the contrast gradient narrows. However, a fully independent acceleration force occurs more dominantly due to the nature of time itself. If it were not the character of the ultimate singularity to be witnessed relative to present cosmological conditions as a hyper expanding space, the momentum toward zero would be maintained nearer to an ever decreasing rate, and highly organized particle annihilations would be necessary to produce the final equilibrium. However, accelerating expansion demonstrates that from our perspective, the state of absolute zero is the sum of all possible directions in four dimensional space, which is also a fundamental prediction of the theory of symmetry order.

Prior to the discovery of accelerating expansion, it was assumed that a state of absolute zero or a perfectly flat space, if entertained as being physically real, would be envisioned simply as a Euclidean space, a static three dimensional block of empty space in which ordinary properties such as distance have no meaning. As I integrated acceleration into this state space model it gradually became evident that we in this discovery are simply witnessing the most innate property of a four dimensional existence. As symmetry order indicates, absolute zero is an integration of all possible states, as well as all four dimensional directions in space, the four dimensional whole, and thus the composite of all possible space-times. With our universe converging toward and becoming a part of that matrix, the expansion of the universe is required to accelerate by the conditions which exist at the end of time.

The End of Time

With the direction of time following the basin of attraction within the contrast gradient we can expect a more complex scheme for the end of time than Caldwell's Big Rip scenario. The dominant quantity of isotropic patterns near flat space require a gradual and increasingly uniform descent to zero more reminiscent of the beginning of time than a late-time shredding of whole galaxies. As space-time approaches zero, stars and galaxies and all complex atoms will be systematically broken down into a supercooled condensate of protons and electrons stationed in orderly rows and columns.

One of the more interesting spin-offs of this model is how an inevitable future dictates the past, that being our present. If a single state in the future is probabilistically predestined then that state will shape and focus the probability densities of its own past. Absolute zero is the great attractor in aggregate state space that literally sets in motion the ordered and systematic process of time, different from a universe energetically forced outward from a past event. This leads to discovering several causes located in the future. All dominant trends in nature toward integration, balance, equilibrium, uniformity, any dissolving of grouping order, such as occurs from cosmological expansion, electromagnetism and the weak force, are properly causally associated with the future, rather than any event in the past. From the very outset of time, an inevitable future reaches into its past, fine tunes the universe, in order to bring about itself.

Turning now to a summary of probabilities of this model, the ease with which the probabilities correlate with each of the forces of nature, indicates that although a general arrow of time is built into the SOAPS, there is no fixed single direction of time. The general probabilities of this model indicate that gravitation is time moving backward and expansion is time moving forward. Gravity can be understood principally as a probability attempting to recreate the density of the past. The group of states which are more dense than the average density of the system produces a general measure of probability which inhibits expansion, while the basin of attraction in the contrast gradient determines a specific measure of lumpiness presently in the form of stars and galaxies. Likewise, cosmological expansion can be understood principally as time moving forward along the density gradient. So the conclusion is that the world around us is built up from the flow of time moving in multiple directions, which eliminates the possibility of temporal paradoxes. If an observer could somehow manage to intrude on a past-like state, all temporal evolution from the instant of the intrusion would proceed probabilistically free from any expected or previously recorded history.

In regards to the role of forces, it is possible to recognize how forces with a causal relationship to the future are visibly engineered in a way to bring about a gradual breakdown of definition and form in the final transition from grouping to symmetry order. Each force has a specific role in this hidden scheme of nature. The weak force can be seen to have the potential to break down all complex atomic material into protons and electrons with the gradual weakening of the strong force predicted to occur during convergence. This would allow electromagnetism to dominate and spread all proton and electron pairs evenly throughout the greater expanses of space, this occurring as linear gravitation equalizes with Hubble expansion. The final role of electromagnetism will be to produce a symmetry of protons and electrons stationed in orderly rows and columns, such as what is witnessed when cooling gases into Einstein-Bose condensate. In the final moments hyper-expansion stretches all remaining matter and energy flat. Space-time collapses even as the curvature of our four dimensional space is stretched flat. In that instant our universe completes its integration with all other space-times including its inseparable parallel partner. The two opposite arrows of time become omni-directional and inflated, producing at time's end the ultimate singularity; a oneness of space and time and things, which can be understood to be the timeless and native state of the greater Universe.
 

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Related essays:  Symmetry Mathematics


References

[1] Perlmutter S., et al., Nature 391, 51 astro-ph/9712212 (1998); Perlmutter, S., Astrophys. J. 517, 565 astro-ph/9812133 (1999).
[2] Riess, A. G., et al., Astron. J. 116, 1009, astro-ph/9805201 (1998).
[3] Miller, A. D., et al., Astrophys. J. Lett. 524, L1 (Cerro Toco) astro-ph/9906421 (1999).
[4] de Bernardis, P., et al., Nature 404, 955, (Boomerang) astro-ph/0105296 (2000).
[5] Hanany, S., et al., Astrophys. J. Lett. 545, L5, (Maxima) astro-ph/0005123 (2000).
[6] Halverson, N.W., et al., Astrophys. J. 568, 38, (DASI) astro-ph/0104489 (2002).
[7] Mason, B. S., et al., astro-ph/0205384 (2002).
[8] Benoit, A., et al., astro-ph/0210306 (2002).
[9] Harris, D., The Superstructure of an Infinite Universe (1994); At the Shore of an Infinite Ocean (1996); Exploring a Many Worlds Universe (1997)
[10] Harris, D., Everything Forever; Learning to See the Infinite Universe (2003)
[11] Harris, D., Everything Forever; Learning to See the Infinite Universe (everythingforever.com); Macrocosmic Symmetry, On Modeling Macrocosmic State Space (2001) (macrocosmicsymmetry.com)
[12] Misner C. W., Absolute Zero of Time. 10.1103/PhysRev.186.1328 abstract (1969).
[13] S. W. Hawking and R. Penrose, Proc. Roy. Soc. Lond. A314, 529 (1970); S. W. Hawking and G. F. R. Ellis, The large scale structure of space-time (Cambridge University Press, Cambridge, 1973).
[14] Boltzmann L., On the relation between the second law of the mechanical theory of heat and the probability calculus with respect to theorems of thermal equilibrium. Sitzungsber. Kais. Akad. Wiss. Wien, Math. Naturwiss. Classe 76, 373 (1877).
[15] Klyce, B., The Second Law of Thermodynamics. (http://panspermia.org/seconlaw.htm)
[16] Rifkin, J., Entropy, A New World View. Viking (1980).
[17] Hawking S. W., A Brief History of Time. Bantam (1988).
[18] Barbour, J., The End of Time; The Next Revolution in Physics. Oxford University Press, (1999); The timelessness of quantum gravity. Classical and Quantum Gravity 11, 2853 (1994).
[19] Eddington, A., The Mathematical Theory of Relativity. Cambridge University Press (1923).
[20] Hut, P.,  As in a Dream. ias.edu (2000).
[21] Hawking S. W., Cosmology from the Top Down. astro-ph/0305562 (2003).
[22] Bohm, D., Wholeness and the Implicate Order, Routledge & Kegan Paul, (1980); Bohm, D., Peat, F. D., Science, Order & Creativity. Bantam Books, (1987).
[23] Hut, P., Structuring Reality: The Role of Limits. ias.edu (1995).
[24] Weber, T., Herbig, J., N�gerl, M. M., H., Grimm, R., Science 10.1126/science.1079699, 5 (2002).
[25] Spergel, D. N. et al., astro-ph/0302209 (2003).
[26] Page, L. et al., astro-ph/0302220 (2003).
[27] Philosophy of Zeno and Parmenides
[28] Woodward, J. F., Killing Time. Foundations of Physics Letters, Vol. 9, No. 1, (1996).
[29] Deutsch, D. The Fabric of Reality. Penguin (1997).
[30] Stenger, V., Timeless Reality; Symmetry, Simplicity, and Multiple Universes. Prometheus (2000).
[31] Einstein, A., Relativity; The Special and General Theory, Random House (1961).
[32] Einstein, A., Letter to Michele Besso's Family. Ref. Bernstein, Jeremy., A Critic at Large: Besso. The New Yorker (1989)
[33] Feynman, R., Space-Time Approach to Non-Relativistic Quantum Mechanics. Rev. Mod. Phys. 20 367, (1948); The Theory of Positrons. Physical Review 76, 749, (1949) fsu.edu; Space-Time Approach to Quantum Electrodynamics. Phys. Rev. 76 769, (1949) fsu.edu; Mathematical Formulation of the Quantum Theory of Electromagnetic Interaction. Phys. Rev. 80 486 (1950) fsu.edu
[34] Hartle J. B., Hawking S. W. Wave function of the Universe. Phys. Rev. D 28, 2960
(1983).
[35] Price, H., Time�s Arrow and Archimedes� Point: New Directions for the Physics of Time. Oxford (1997).
[36] Deutsch, D., The Fabric of Reality, Penguin (1997)
[37] Czajko, J., On conjugate complex time I. Chaos, Solitons & Fractals, Vol. 11 (13) p.1983 (2000); On conjugate complex time II. Chaos, Solitons & Fractals, Vol. 11  p.2001 (2000)
[38] Herbert, N. Quantum Reality; Beyond the New Physics. Doubleday (1985)
[39] Wheeler, J. A., Gravitation. Freeman (1973)
[40] Stenger V. J., Time's Arrows Point Both Ways. Skeptic, vol. 8, no. 4, 92 (2001)
[41] Parker, L. & Raval, A., Phys. Rev. D 60, 063512 (1999); Phys. Rev. D 60, 123502 (1999); Phys. Rev. D 62, 083503 (2000).
[42] Parker, L. & Raval, A., A New Look at the Accelerating Universe. Phys. Rev. Lett. 86, 749 (2001).
[43] Carroll, S. M., Hoffman, M. & Trodden, M., astro-ph/0301273 (2003).
[44] Caldwell R.R., Kamionkowski M., Weinberg N.N., Phantom Energy and Cosmic Doomsday. (2003) astro-ph/0302506.
[45] Caldwell, R.R., A Phantom Menace? Phys. Lett. B 545, 23 (2002); astro-ph/9908168.

General
The chemist Shu-Lun Kin has exposed similar issues in regards to how we conceptualize order and symmetry.
[A] Lin, S. -K., Correlation of Entropy with Similarity and Symmetry. Journal of Chemical Information and Computer Sciences, 36, 367 (1996) pdf format
[B] Lin, S. -K. The Nature of the Chemical Process. 1. Symmetry Evolution �Revised Information Theory, Similarity Principle and Ugly Symmetry. Int. J. Mol. Sci. 10 (2001) pdf format
[C] Bohm, David, Wholeness and the Implicate Order. Routledge & Kegan Paul, (1980).
[D] Rucker, Rudy, Infinity and the Mind; The Fourth Dimension: A Guided Tour of the Higher Universes. Houghton Mifflin (1984).
[E] Davies, Paul, Other Worlds; Space, Superspace and the Quantum Universe. Simon & Schuster; (1981); Davies, Paul, Superforce; The Search for a Grand Unified Theory of Nature. Heinemann (1984).
[F] Talbot, Michael, The Holographic Universe, HarperCollins, New York, (1991).
[G] Wolf, Fred. Parallel Universes: The Search for Other Worlds. Simon and Schuster, (1988).
[H] Seife, Charles, Zero; the Biography of a Dangerous Idea. Viking (2000).

 

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