Appendix F
Cosmological narrative
Purpose
To map the entire sequence of cosmic evolution—from the initial conditions of the universe to the formation of the first atoms—onto the CoD framework. This demonstrates that the CoD ontology is not merely a philosophical interpretation but a process description that aligns with the most fundamental physics. The narrative reveals that the universe did not 'begin' as a thing, but as a conference of differences that has continued to reconfigure (transform) itself over billions years.
Importantly, the CoD framework does not conflate the origin of our universe with the ground of existence. The narrative of cosmic genesis describes the reconfiguration of an already-existing conference of differences—it does not specify the origin of the primordial plasma—the quarks, gluons, leptons, and photons—that constitute its initial being. The CoD framework is compatible with various cosmogonic models, including those in which our universe emerges from a prior cosmic state (e.g., black hole cosmology, ekpyrotic models, or quantum fluctuation scenarios).[1]
F.1 The initial condition: the primordial CoD
The universe did not begin as a thing. It began as a condition—a condition of extreme relational tension. In the first moments after the Big Bang, the universe was an extraordinarily hot, dense plasma of quarks, gluons, leptons, and photons. There were no atoms, no molecules, no structures—only fields and particles in a state of violent, continuous interaction.[2]
In CoD terms, this was a conference of differences in its most intense expression. Differences of energy, density, temperature, and fundamental forces bore together with maximal relational tension. The conference had not yet 'cooled' or 'decoupled'—it was a condition of maximal differentiation, where differences were so densely packed that no stable being had yet emerged. There was no separation between matter and radiation, no distinction between force and particle. The universe was a concentrated conference of differences in a condition of extreme relational intensity.
This was not chaos. It was the ground condition of the physical universe—as close to pure potentiality as existence can be. Every subsequent conference of difference—every atom, every star, every galaxy—would emerge from the reconfiguration of this primordial CoD. The conditions of this initial conference of difference—the values of the fundamental constants, the symmetries of the forces—would become the grammar for all future conferences of differences, the stable parameters within which difference could bear together into increasingly complex forms.[3]
The initial CoD was not 'nothing'. It was the most something—the densest, most intense relational configuration possible. It is from this condition that all other conditions would emerge.
Key insight: The universe did not begin as a thing; it began as a conference of differences in its most intense expression—a pure condition of relational tension that would reconfigure itself through billions of years of conferring differences.
F.2 The expansion: the conference begins to bear apart
As the universe expanded and cooled, the primordial conference of differences began to reconfigure. The extreme relational tension of the initial condition was no longer sustainable as the conference's relational configuration expanded—the distances between existent CoDs increased—which we map as the expansion of space. Importantly, this was not a 'break' or 'collapse'—the process of difference bearing together is constant; what changed were the variables, giving rise to new conferences of difference.
In physical terms, this was the era of inflation and the subsequent cooling of the universe. The fundamental forces, which had been unified in the earliest instants, began to separate: gravity first, then the strong nuclear force, then the weak nuclear force, and finally electromagnetism.[4]
In CoD terms, this was the expression of distinct conferences. What had been a unified conference of differences—differences so densely packed that no stable being could emerge—now began to differentiate into distinct being. Gravity expressed as the configuration of mass-energy in relation to itself—the trace we map as the curvature of space-time.[5] The strong force expressed as the binding of quarks. The electromagnetic field expressed as the interaction of charged particles. These were not 'separate things' that emerged from an 'initial state' (substance speak) but rather the same process conferring with differing variables—each a conference of difference in its own right.
The expansion of the universe was not a thing expanding. It was the map of the conference expanding—space-time itself is an abstraction drawn from the relational patterns of the conference of difference.[6] The conference did not expand into a pre-existing container; but constantly reconfigures its relationality, and we map the measure of that reconfiguration as 'space expanding'. The expansion is a trace of the CoD's reconfiguration, not a thing that happens to the conference itself—the process remains; the configuration of variables changes.
The conditions of this expansion—the specific rates of cooling, the thresholds at which forces decoupled—became the grammar for all future conferences of difference. The universe did not 'choose' these values; they were the necessary conditions for the conference to bear differences forward into stable being—'action to be'. Had the expansion been too fast or too slow, the conference of difference would not have reconfigured into the stable patterns we observe.[7]
Key insight: The expansion of the universe was not a thing expanding; it was the conference bearing its differences forward into new being: 'action to be'. The cooling and decoupling of forces were reconfigurations of the same conference of difference, establishing the grammar for all future CoD's.
F.3 The era of nucleosynthesis: protons and neutrons confer
As the universe continued to cool, the conference of differences re-configured into its new stable beings: protons and neutrons. In physical terms, this was the era of Big Bang nucleosynthesis—the period when the first atomic nuclei formed.[8]
At this stage, the universe had cooled to about two trillion degrees Kelvin—cool enough for quarks to bind together into protons and neutrons via the strong nuclear force.[9] Protons (up, up, down quarks) and neutrons (up, down, down quarks) were now stable conferences in their own right—beings with mass and charge (in the case of protons). Some of these protons and neutrons then fused into light nuclei—deuterium, helium-3, helium-4, and trace amounts of lithium.[10]
In CoD terms, this was the emergence of higher-order conferences from the reconfiguration of the primordial conference. Quarks and gluons (conferences of strong force differences) bore together to form protons and neutrons—new beings with their own limogenetic boundaries. These protons and neutrons then conferred with one another via the strong force, exchanging pions (the trace of the strong conference), to form light nuclei.[11] Each fusion event was a conference between conferences—protons and neutrons in atonement: 'action to be at one' at the limogenetic boundary of the strong nuclear force, obtaining forgiveness: a 'measure of giving away' through the exchange of pions, and bearing together as a new, stable nucleus.[12]
The formation of these nuclei was not a 'creation' of new things from nothing. It was the resolution of differences into stable configurations. The strong nuclear force—the conference of quarks bearing together—granted forgiveness to the quarks, allowing them to bind into stable configurations. The resulting protons and neutrons were not separate from the quarks; they were the same conference of difference, now expressed as a higher-order being.
The stability of the proton and neutron became the foundation for all subsequent conferences of differences. Without protons and neutrons, atoms could not form. Without atoms, molecules could not form. Without molecules, life could not emerge. The nucleosynthesis era established the fundamental grammar of existence—the stable conferences from which all other conferences would emerge.[13]
The era of nucleosynthesis was not a 'beginning' of new things. It was a reconfiguration of the conference of difference—the primordial differences bearing together into stable, persistent patterns that would serve as the building blocks for all future complexity.[14]
Key insight: Protons and neutrons were not created from nothing. They were the same conference of differences now reconfigured into stable, higher-order beings—the foundation for atoms, molecules, and ultimately, life.
F.4 The plasma era: The constant CoD of matter and radiation
Following nucleosynthesis, the universe entered a period that would last for nearly 380,000 years—the plasma era. In physical terms, this was a hot, dense soup of free electrons, protons, and light nuclei (primarily hydrogen and helium), with photons constantly interacting with the charged particles. The universe was opaque—photons could not travel freely because they were constantly absorbed and re-emitted by the free electrons.[15]
In CoD terms, this was a period of continuous conferring between baryonic matter and radiation. The plasma was not a collection of separate things; it was a conference of conferences—protons, electrons, and photons all bearing together in a dynamic, ever-shifting equilibrium. The limogenetic boundary between baryonic matter and radiation was constantly crossed and re-established. Photons atoned with electrons; electrons granted absorption and re-emission (forgiveness). The conference of difference of baryonic matter and radiation was in a state of constant exchange—a dynamic equilibrium that maintained the opacity of the universe.[16]
This continuous conferring was not a stable state—it was a suspension of resolution. The differences between matter and radiation had not yet resolved into stable forms. The plasma conference was a holding pattern, a dynamic balance that would persist until the universe cooled enough for a fundamental reconfiguration to occur.
Key insight: The plasma era was a period of continuous conferring—baryonic matter and radiation in a dynamic equilibrium, with photons constantly atoning with charged particles. This was not a stable state; it was a suspension of resolution, awaiting the conditions for reconfiguration.
F.5 Recombination: the CoD reconfigures
For nearly 380,000 years, the universe had been held in a state of dynamic suspension—a plasma of charged particles and photons in continuous conference of difference. But as the universe expanded and cooled, the conditions for this conference began to change. The temperature dropped to approximately 3000 Kelvin—cool enough for protons and electrons to bind together into neutral hydrogen atoms.[17]
In physical terms, this was recombination—the moment when the universe's plasma re-configured into a gas of neutral atoms. Protons (charge +1) and electrons (charge -1) were attracted to each other via the electromagnetic force. They conferred at their respective limogenetic boundaries, exchanging photons (the trace of the electromagnetic interaction), and bound together into a new being: the neutral hydrogen atom, with its own limogenetic boundary.[18]
The formation of neutral hydrogen was not a 'creation' of new things from nothing. It was a reconfiguration of the conference of differences. The cooling of the universe changed the variables—temperature dropped, kinetic energy decreased—such that the charged plasma conference, which had been held in dynamic tension for millennia, re-configured into a new conference of difference: a gas of neutral atoms, each a stable, higher-order being with its own limogenetic boundary.[19]
What this means for the CoD framework
| Physics | CoD Translation |
|---|---|
| Recombination | The plasma CoD reconfigures into a new CoD—neutral atoms |
| Protons and electrons bind | They confer at their respective limogenetic boundaries, exchanging photons (the trace of the electromagnetic interaction) |
| Neutral hydrogen atoms form | The charged particles are reconfigured into a new, stable higher-order conference—zero net charge, a new limogenetic boundary |
| The universe becomes neutral | The conference of matter is no longer charged—it no longer interacts with photons in the same way |
Key insight: The plasma conference of charged particles and photons re-configured into a new conference of difference: neutral atoms, each a stable being with its own limogenetic boundary. The process continued; the configuration changed as the universe cooled. The conditions for decoupling—the release of photons—had been established.
F.6 Decoupling: the photons are released
With the formation of neutral hydrogen atoms, the universe underwent its most profound reconfiguration since the separation of forces: decoupling. In physical terms, this was the moment when photons stopped interacting with baryonic matter. The neutral atoms had no net charge, so they no longer scattered photons. The universe became transparent—photons could now travel freely, unimpeded, across the cosmos.[20]
In CoD terms, this was the release of the surplus difference—the photons—the trace of continuous conferring between charged particles—were now free to propagate. The electromagnetic field's conference decoupled from the baryonic matter conference: the limogenetic boundary that defined their generative conferring could no longer be maintained as the universe cooled and neutral atoms formed. The photons, which had been the trace of that continuous conferring, were now released into the expanding universe, bearing their differences forward without further termination or reconfiguration.[21]
Key insight: Decoupling was not a 'release' of photons from a container. It was the reconfiguration of the conference of differences—the electromagnetic field's conference no longer bore together with the baryonic matter conference. The photons were the trace of this reconfiguration, now propagating freely.
What this means for the CoD framework
| Physics | CoD Translation |
|---|---|
| Decoupling | The electromagnetic field's conference decouples from the baryonic matter conference—the limogenetic boundary that defined their generative conferring can no longer be maintained |
| Photons stop interacting with neutral atoms | The photons are no longer terminated at the limogenetic boundaries of neutral atoms—the neutral atoms grant no forgiveness (no absorption or re-emission) |
| The universe becomes transparent | The photons propagate freely—they bear their differences forward without termination or reconfiguration |
| The CMB is released | The photons are the trace of that former conferring—the surplus difference of the electromagnetic interaction, now freely propagating without further termination |
Key insight: Decoupling was the moment when the electromagnetic field's conference released its surplus difference—the photons that had been in continuous conferring with baryonic matter were now free to propagate. The CMB is the trace of that release, still echoing after billions years.
F.7 The expanding CoD: the CMB today
The photons released at decoupling have been traveling freely over billions years. They are the Cosmic Microwave Background (CMB)—a faint, uniform glow that fills the entire universe. In physical terms, the CMB is the oldest light in existence, a relic of the universe's infancy. Its discovery in 1965 by Penzias and Wilson was a landmark confirmation of the Big Bang model.[22]
At the moment of decoupling, these photons were energetic—they were emitted at temperatures of about 3000 Kelvin, corresponding to visible and infrared light. But as the universe expanded, the wavelengths of these photons were stretched. The expansion of space—the map of the CoD—stretched the wavelengths by a factor of approximately 1100, shifting them into the microwave region of the spectrum. Today, the CMB has a temperature of just 2.725 Kelvin, a faint whisper of the universe's fiery birth.[23]
In CoD terms, the CMB is the trace of the CoD's reconfiguration—the surplus difference of the electromagnetic field, released at decoupling and still propagating. The stretching of the wavelengths is a change in the photons themselves—their frequency has redshifted, their energy decreased—but this change is not a reconfiguration through conferring with another being; it is the propagation of the trace through an expanding relational field. We map this change as the expansion of space-time, but the change is in the territory, not merely in the map. The photons continue to bear their differences forward, but their being has changed—their wavelengths have stretched as the relational field expanded. We map this change as the expansion of space-time: the coordinates of the map have shifted to reflect the territory's reconfiguration.[24]
The CMB is not a 'thing' that was created and then cooled. It is the trace of a conference of the electromagnetic field's surplus difference, released when it decoupled from baryonic matter, and still bearing its differences forward across the expanding universe. It is the echo of the original conference of difference, still speaking after billions years.
What this means for the CoD framework
| Physics | CoD Translation |
|---|---|
| The CMB is the oldest light in the universe | The CMB is the trace of the electromagnetic interaction between charged particles—the surplus difference released at decoupling |
| The CMB has been stretched by cosmic expansion | The photons themselves have changed—their wavelengths have stretched, their energy decreased—as the relational field expanded. We map this as the expansion of space-time. |
| The CMB has a temperature of 2.725 K | The photons' energy has redshifted into the microwave region—a real change in the trace's being, mapped as cooling |
| The CMB is uniform but has tiny fluctuations | The conference's differences are not perfectly smooth—they bear tiny asymmetries that would later seed the formation of galaxies |
Key insight: The CMB is not a relic of a past event. It is the ongoing expression of the electromagnetic field's trace—the photons released at decoupling, still propagating, still bearing their differences forward. The photons themselves have changed—their wavelengths stretched, their energy decreased—as the relational field expanded; we map this change as the expansion of space-time. The process of difference bearing together continues; the conference of baryonic matter and radiation, however, has decoupled.
F.8 The cosmological constant: the CoD continues
The decoupling of matter and radiation was not the end of the cosmic narrative—it was a reconfiguration that set the stage for everything that followed. As the universe continued to expand and cool, the process of difference bearing together continued, reconfiguring into new being.
In physical terms, this is the era of persistent patterns of conferring—the growth of cosmic configurations from the tiny fluctuations imprinted in the CMB. Gravity, operating on the slight density variations present at decoupling, amplified these differences into the vast cosmic web of galaxies, clusters, and superclusters that we observe today.[25] Stars formed, galaxies coalesced, and the heavy elements necessary for life—carbon, oxygen, nitrogen—were forged in stellar cores and scattered across the cosmos by supernovae.[26]
In CoD terms, the process of difference bearing together continues—now expressed at larger scales and greater complexity. Gravity, the conference of mass-energy conferring with space-time, drew matter together into stars and galaxies. The electromagnetic field, which had decoupled from baryonic matter, continued to confer with charged particles in stars, driving fusion reactions that forged the elements. The weak and strong nuclear forces continued to confer within atomic nuclei, maintaining the stability of matter. The universe was not a collection of separate things; it was a nested conference of conferences of difference—each bearing together, reconfiguring, and giving rise to new conferences of difference.[27]
The cosmological constant—the energy density of the vacuum, which drives the accelerated expansion of the universe—is itself a conference of differences. In CoD terms, it is the bare conference of difference—the process primitive of existence, the irreducible process of difference bearing together that underlies all being. Even without baryonic matter and radiation to instantiate particular conferences, the process continues as the foundational expression of existence itself.[28] This is the bare conference—the irreducible process of difference bearing together that underlies all existence.
The universe is not a 'thing' that evolved. It is a conference of difference that continues to reconfigure—from the primordial plasma to the present day, the same process of differences bearing together has expressed itself in ever more complex forms. The CMB is the trace of one reconfiguration; the stars and galaxies are the trace of another; and we, as beings of flesh and consciousness, are the trace of another still.
Key insight: Decoupling was a reconfiguration, not a conclusion. It established the conditions for the next phase of the cosmic conference—gravity, electromagnetism, and the nuclear forces continued to confer, forming stars, galaxies, planets, and eventually, life. The cosmological constant is the residual expression of the process primitive—the bare conference of difference, continuing as the foundational process of difference bearing together.
What this means for the CoD framework
| Physics | CoD Translation |
|---|---|
| The universe continues to expand and cool | The conference continues to reconfigure—new expressions emerge as the relational field expands; we map this as the expansion of space-time |
| Structure formation—galaxies, stars, planets, life | The conference continues to confer at higher scales—gravity draws baryonic matter together; electromagnetic forces form atoms and molecules |
| The cosmological constant drives accelerated expansion | The residual relational tension of the territory itself—the bare conference of difference, continuing to bear differences forward |
| Life emerges—biological, social, abstract domains | The conference of differences is now expressed in the Vital, Psyche, and Social domains—new forms of being |
The full cosmic narrative: a summary
| Section | Physics | CoD Translation |
|---|---|---|
| F.1 | Initial plasma of quarks, gluons, leptons, photons | Conference of differences in maximal relational tension |
| F.2 | Inflation, cooling, separation of forces | The conference reconfigures—distinct expressions emerge as the relational field expands; we map this as the expansion of space-time |
| F.3 | Big Bang nucleosynthesis—protons, neutrons, light nuclei form | Higher-order conferences emerge—quarks confer to form protons and neutrons, each a stable being with its own limogenetic boundary |
| F.4 | Plasma era—free electrons, protons, photons in continuous interaction | Continuous conferring between baryonic matter and radiation in dynamic equilibrium |
| F.5 | Recombination—protons and electrons bind into neutral hydrogen | The plasma conference reconfigures as it cools into a new conference of difference—neutral atoms, each a stable being with its own limogenetic boundary |
| F.6 | Decoupling—photons stop interacting with neutral atoms; the CMB is released | The conference of difference between the electromagnetic field and baryonic matter decouples; photons (the trace) are released and propagate freely |
| F.7 | The CMB today—microwave radiation, 2.725 K, uniform but with fluctuations | The trace of that former conferring, still propagating; the photons themselves have changed (redshifted) as the relational field expanded—we map this as the expansion of space-time |
| F.8 | Structure formation—stars, galaxies, planets, life; cosmological constant | The process continues—gravity, electromagnetism, and nuclear forces continue to confer; the cosmological constant is the residual expression of the process primitive—the bare conference of difference |
Conclusion
The Genesis of the Physical Universe is not a story of creatio ex nihilo—creation from nothing. It is a story of reconfiguration: a single, continuous process of difference bearing together, cooling, decoupling, and reconfiguring into ever more complex forms of being. The universe is not a collection of things; it is a process—a conference of difference that continues to reconfigure, from the primordial plasma to the present day. The CMB is the trace of that former conferring between baryonic matter and radiation; the stars and galaxies are persistent configurations of that same process; and we—as beings of flesh and consciousness—are ourselves conferences of difference, still participating today.
ContentsFootnotes
For black hole cosmology, see: Smolin, L. (1992). Did the universe evolve? Classical and Quantum Gravity, 9(1), 173–191. For ekpyrotic models, see: Khoury, J., Ovrut, B. A., Steinhardt, P. J., & Turok, N. (2001). The ekpyrotic universe: Colliding branes and the origin of the hot big bang. Physical Review D, 64(12), 123522. For quantum fluctuation models, see: Tryon, E. P. (1973). Is the universe a vacuum fluctuation? Nature, 246(5433), 396–397. Also: Krauss, L. M. (2012). A universe from nothing. Free Press. ↩︎
The standard model of cosmology describes this state as an extremely hot, dense, and rapidly expanding plasma, with quarks and gluons not yet confined into hadrons. See: Kolb, E. W., & Turner, M. S. (1990). The early universe. Addison-Wesley. (Chapter 7: Phase Transitions in the Early Universe). Also: Olive, K. A., et al. (Particle Data Group). (2014). Review of Particle Physics. Chinese Physics C, 38(9), 090001. (Section on Big Bang Nucleosynthesis). ↩︎
Barrow, J. D. (2003). The constants of nature. Pantheon Books. Barrow and Tipler (1986) discuss the fine-tuning of constants and the early universe in The anthropic cosmological principle. Oxford University Press. ↩︎
The separation of forces is described in standard cosmological models as a series of phase transitions as the universe cooled. See: Guth, A. H. (1997). The inflationary universe. Basic Books. (See Chapters 8–10 for a discussion of the separation of forces). Also: Weinberg, S. (1977). The first three minutes. Basic Books. (Chapter 5: The First Hundredth of a Second). ↩︎
Misner, C. W., Thorne, K. S., & Wheeler, J. A. (1973). Gravitation (p. 5). W. H. Freeman. The authors formulate this as 'matter tells spacetime how to curve'—a relation the CoD model interprets as the gravitational field (real) being fully determined by the configuration of existents, while spacetime itself is understood as abstracta (see [[cod-thesis-c0550-domain-abstract.htm]]). ↩︎
This aligns with the CoD view of space-time as revealed abstracta, distinct from the territory of the CoD. See: [[cod-thesis-c0550-domain-abstract.htm]]. Also: Rovelli, C. (2004). Quantum gravity. Cambridge University Press. (Chapter 1: The Problem). ↩︎
Rees, M. (2000). Just six numbers: The deep forces that shape the universe (pp. 30–35, 47–52). Basic Books. Barrow, J. D. (2003). The constants of life (Chapter 6). Pantheon Books. ↩︎
The standard model of Big Bang nucleosynthesis describes the formation of light nuclei in the first few minutes of the universe. See: Olive, K. A., et al. (Particle Data Group). (2014). Review of Particle Physics. Chinese Physics C, 38(9), 090001. (Section on Big Bang Nucleosynthesis). Also: Kolb, E. W., & Turner, M. S. (1990). The early universe. Addison-Wesley. (Chapter 4: Big Bang Nucleosynthesis). ↩︎
The confinement of quarks into hadrons occurs at a temperature of approximately 150–200 MeV, corresponding to about 1.7–2.3 × 10¹² K. See: Griffiths, D. J. (2008). Introduction to elementary particles (2nd ed., Chapter 2). Wiley-VCH. (Section on Quantum Chromodynamics). ↩︎
For a pedagogical account of the nucleosynthesis process, see: Weinberg, S. (1977). The first three minutes (Chapter 5). Basic Books. For a contemporary review of the standard model of nucleosynthesis, see: Iocco, F., Mangano, G., Miele, G., Pisanti, O., & Serpico, P. D. (2009). Primordial Nucleosynthesis: From Precision Cosmology to Fundamental Physics. Physics Reports, 472(1-6), 1-76. For the observational confirmation of the predicted abundances, see: Fields, B. D., Olive, K. A., Yeh, T.-H., & Young, C. (2020). Big-Bang Nucleosynthesis after Planck. Journal of Cosmology and Astroparticle Physics, 2020(03), 010. ↩︎
For the role of pions in mediating the strong force between nucleons, see: Griffiths, D. J. (2008). Introduction to elementary particles (2nd ed., Chapter 2). Wiley-VCH. (Section on Nuclear Forces and Yukawa's Theory). Also: Povh, B., Rith, K., Scholz, C., & Zetsche, F. (2008). Particles and nuclei (6th ed., Chapter 3). Springer. ↩︎
For a conceptual overview of QCD and quark confinement, see: Wilczek, F. (1999). Quantum field theory. In B. Bederson (Ed.), More things in heaven and earth: A celebration of physics at the millennium (pp. 143–160). Springer. Also, for the definitive account of confinement and the vacuum, see: Wilczek, F. (2000). QCD Made Simple. Physics Today, 53(8), 22–28. ↩︎
Barrow, J. D., & Tipler, F. J. (1986). The anthropic cosmological principle (Chapter 4). Oxford University Press. The authors discuss the necessity of stable protons and neutrons for the emergence of complex structures. See also: Rees, M. (2000). Just six numbers (Chapter 3). Basic Books. ↩︎
For a general overview of the early universe and the formation of nuclei, see: Hawking, S. W. (1988). A brief history of time (Chapter 8: The Origin and Fate of the Universe). Bantam Books. The CoD model interprets the 'beginning' of the universe not as a creation event, but as the initial condition of a conference of differences which then reconfigured into the phenomena we observe today. ↩︎
The opacity of the early universe is a standard feature of cosmological models. Photons scatter frequently off free electrons, making the universe opaque until recombination. See: Peebles, P. J. E. (1993). Principles of physical cosmology (Chapter 3). Princeton University Press. Also: Weinberg, S. (1977). The first three minutes (Chapter 6). Basic Books. For a more technical account of the physics of recombination, see: Peacock, J. A. (1999). Cosmological physics (Chapter 11). Cambridge University Press. ↩︎
For a detailed account of the physics of scattering and opacity in the early universe, see: Peebles, P. J. E. (1993). Principles of physical cosmology (Chapter 5). Princeton University Press. Also: Dodelson, S. (2003). Modern cosmology (Chapter 5, Section 5.2). Academic Press. ↩︎
The temperature of recombination is approximately 3000 K, corresponding to a redshift of z ≈ 1100. See: Peebles, P. J. E. (1993). Principles of physical cosmology (Chapter 5, Sections 5.1 & 5.2). Princeton University Press. Also: Dodelson, S. (2003). Modern cosmology (Chapter 3). Academic Press. ↩︎
The process of recombination is described in standard textbooks on cosmology. See: Peacock, J. A. (1999). Cosmological physics (Chapter 11). Cambridge University Press. Also: Weinberg, S. (1977). The first three minutes (Chapter 6). Basic Books. For a detailed account of the physics of recombination, see: Seager, S., Sasselov, D. D., & Scott, D. (1999). A New Calculation of the Recombination Epoch. Astrophysical Journal, 523(1), L1-L5. ↩︎
The CoD model interprets recombination as a reconfiguration of the conference of differences, not as the creation of new substances. This aligns with the CoD framework's emphasis on process over substance. The cooling changed the conditions of the conference, enabling a new configuration of being to emerge. ↩︎
For the standard description of decoupling, see: Peebles, P. J. E. (1993). Principles of physical cosmology (Chapter 5, Sections 5.1 & 5.2). Princeton University Press. Also: Dodelson, S. (2003). Modern cosmology (Chapter 4). Academic Press. For the physics of the mean free path of photons, see: Weinberg, S. (1977). The first three minutes (Chapter 9). Basic Books. ↩︎
The CoD model interprets decoupling as the release of the surplus difference of the conference—the photons are the trace of the electromagnetic conference's reconfiguration. This aligns with the CoD framework's emphasis on process over substance. ↩︎
For the discovery of the CMB, see: Penzias, A. A., & Wilson, R. W. (1965). A Measurement of Excess Antenna Temperature at 4080 Mc/s. Astrophysical Journal, 142, 419–421. For a historical account, see: Peebles, P. J. E. (1993). Principles of physical cosmology (Chapter 5, Section 5.1). Princeton University Press. For a technical account of the CMB's spectrum, see: Fixsen, D. J., et al. (1996). The Cosmic Microwave Background Spectrum from the Full COBE FIRAS Data Set. Astrophysical Journal, 473, 576–587. ↩︎
The redshift of the CMB is z ≈ 1100, corresponding to a temperature of about 2.725 K today. See: Planck Collaboration. (2020). Planck 2018 results. VI. Cosmological parameters. Astronomy & Astrophysics, 641, A6. Also: Fixsen, D. J. (2009). The Temperature of the Cosmic Microwave Background. Astrophysical Journal, 707(2), 916–920. ↩︎
The CoD model interprets the expansion of the universe as the map (space-time) expanding to reflect changes in the territory—the relational configuration of the conference. The photons themselves have changed (redshifted), but this change is not a reconfiguration through conferring; it is the trace propagating through an expanding relational field. The map's coordinates shift to reflect that change in the territory. See: [[cod-thesis-c0550-domain-abstract.htm]] for the distinction between territory and map. ↩︎
For the standard model of structure formation, see: Peebles, P. J. E. (1993). Principles of physical cosmology (Chapter 6–7). Princeton University Press. Also: Dodelson, S. (2003). Modern cosmology (Chapter 8–9). Academic Press. For observational evidence of the cosmic web, see: Springel, V., et al. (2005). Simulations of the formation, evolution and clustering of galaxies and quasars. Nature, 435(7042), 629–636. ↩︎
For the life cycle of stars and nucleosynthesis of heavy elements, see: Bethe, H. A. (1939). Energy Production in Stars. Physical Review, 55(5), 434–456. (He also published a shorter letter in Phys. Rev. 55, 103 (1939)). For a recent review of stellar nucleosynthesis, see: Arnett, W. D. (1996). Supernovae and nucleosynthesis. Princeton University Press. For the general theory of element formation in stars, see: Burbidge, E. M., Burbidge, G. R., Fowler, W. A., & Hoyle, F. (1957). Synthesis of the Elements in Stars. Reviews of Modern Physics, 29(4), 547–650. ↩︎
The CoD model interprets the emergence of cosmic structures as the continuation of the same process of differences bearing together, now expressed at larger scales and greater complexity. ↩︎
For the cosmological constant and its role in cosmic expansion, see: Einstein, A. (1917). Kosmologische Betrachtungen zur allgemeinen Relativitätstheorie [Cosmological Considerations in the General Theory of Relativity]. Sitzungsberichte der Königlich Preußischen Akademie der Wissenschaften, 1917, 142–152. For a modern perspective, see: Weinberg, S. (1989). The Cosmological Constant Problem. Reviews of Modern Physics, 61(1), 1–23. For the observational evidence of dark energy, see: Perlmutter, S., et al. (1999). Measurements of Ω and Λ from 42 High-Redshift Supernovae. Astrophysical Journal, 517(2), 565–586. Also: Riess, A. G., et al. (1998). Observational Evidence from Supernovae for an Accelerating Universe and a Cosmological Constant. Astronomical Journal, 116(3), 1009–1038. ↩︎