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Seeng 01:02

«And there shall appear from Beeng giants of stature —
Spans small and unseen:
Of Vast eternal
And of Burden bestowed,
Of Bonds unbroken,
And Trinity of Ere.»

An unlikely event arising from an enormous number of trials.
BIOS

The domain inherits absolute quantities:

  • Space Quantum (SQ).
  • Charge Quantum (ChQ), which is also the Mass Quantum (MQ): Qabs. Any mass is an aggregate of such quanta.
  • Time Quantum (TQ) (absolute second) tabs: the base tick of the event sequence, common to the Universe. It requires computation.
  • Limit speed Vabs = ℓabs / tabs. The limit speed of a mass quantum for moving by 1 space quantum per 1 time quantum. It is numerically determined after computing the time quantum tabs.
  • Interaction Quantum (IQ). The minimal act of interaction between two charge quanta at a distance of one space quantum.

Depending on the dimension of the primary SQ, the opening and closing moments of the emission window, and the amount of emitted Matter (Substance), it forms its own local constants—derivatives, particular realizations based on the absolutes.

OS: Mass, Motion, and Time

There is no “rest” in the Universe—everything moves. Therefore there is no single time even for the right and left hand (the differences are very small, but they exist), and the entire Universe is a large “patchwork quilt” of local objects and the conditions surrounding them.

  • To obtain a single comparable picture, a mapping-and-synchronization mechanism is needed, one that must account for all factors of each set of local conditions.
  • Accordingly, one can redefine the “basic matter relation” as a factor dependence on the absolutes and the local cell metric. I do not fix specific functional forms—only the set of factors, their physical meaning, and limiting cases.
Basic quantities and notation
  • Absolutes: ℓabs, Qabs, tabs, Vabs = ℓabs / tabs, Fabs.
  • SQ charges: qm (mass charge, substance mass), qΛ (metric charge, SQ charge).
  • Local effective dimension: Deff.
  • Local clocks “belong” to the SQ cell: the local-time rate is set by the metric state of that cell.
  • Quantitative measure of an object’s mass in quantum counting (dimensionless “how many mass quanta” in a body / a space cell):
    • NM — “how many mass quanta are in the body”: QM_body / Qabs — a dimensionless count of body mass.
    • NS — “what is the metric charge of the medium” in the chosen region: Qeff / Qabs — a dimensionless count of space charge.
Limit speed for a given amount of mass

Instead of a universal limit—a mass-dependent limit:

VMlim = Vabs × F(NM, NS)

Properties of F:

  • 0 < F ≤ 1;
  • Discreteness and nonzero values. Since charge is discrete and absolute, NM ≥ 1 and NS ≥ 1; they cannot become zero, either separately or simultaneously.
  • Degenerate regimes:
    • NS = 1: the cell is charged by one elementary quantum charge of space (zero-dimensional state). The metric is undefined; macroscopic notions of distance/time are absent.
    • NS = 2 : a transitional (line-like) state with degenerate geometry. There is no full macrometric.
    • The cell is charged by one elementary quantum charge of space (zero-dimensional state). The metric is undefined; macroscopic notions of distance / time are absent.
    • These cases should be treated as a different phase state of Space.
  • Mass slows: as NM increases, F does not increase (the limit speed does not grow with the “amount of mass”);
  • The metric slows: as NS increases, F does not increase (the “heavier” the space, the lower the limit);
  • Flat baseline: for NS ≥ 3 and approaching the minimum accessible in the observable world, we take F ≡ const (a baseline “flat metric”). The best reference is the interior of a typical cosmic void at the R* coherence scale, where NS is fixed in the reference-medium description.
Factor structure

The energy–dynamical content of an observed body (what in SR is expressed via E, p, and m) is proportional to the product of:

  • Mass scale: NM — the quantum count of the body’s mass (how many mass “bricks” it contains).
  • Absolute speed scale: Vabs — the base “speed step” from the absolutes ℓ_abs and t_abs.
  • Kinematic factor: the ratio VMlim / VM (how close the body is to its local limit speed).
  • Metric factor: NS — the space charge level (derived from the effective cell dimension Deff).
  • Configuration factor Δd: anisotropies (dimension gradients) of space.
  • Dimensional background: ΔD — on cosmological distances, an observationally visible pattern of space degradation as one approaches the observer.

The form of this function requires refinement. However, a number of its properties are evident:

  • If a body moves much slower than its local limit (VM ≪ VMlim), the kinematic multiplier behaves as unity; as the limit is approached, the “price” of further acceleration rises rapidly, so VM never crosses VMlim (local causality).
  • The higher the dimension of the cells in a space region (the larger the charge and N_S), the slower the local “cell clock” runs, and the more strongly dynamics is suppressed.
  • If the medium is quasi-stationary and isotropic (no gradients), the configuration multiplier equals unity; with pronounced gradients, it provides a correction.
OS: Synchronization with the classical framework

Thus, the general statement. Each body has its own speed ceiling, set by two quantities: NM—the quantum count of the body’s mass, and NS—the metric “saturation” of the medium at the R* coherence scale. The kinematic factor only indicates how close the actual speed is to this ceiling and enforces local causality: the actual speed always remains below its ceiling.

Reductions to the “classical” framework. This statement serves as a scaffold from which familiar theories are obtained by fixing factors:

  • Special Relativity. The medium is locally homogeneous: NS is fixed; for fundamental carriers, the dependence of the ceiling on NM is negligible. Only the kinematic factor is active.
  • Newtonian mechanics. Add “small speeds” to the SR conditions: the kinematic factor yields a negligible correction—recovering classical kinematics.
  • Gravitational (GR-like) regime. Allow NS to evolve smoothly in time and across regions (dimension gradients and dynamic homeostasis): the slowing of the medium’s local “clocks” reproduces the observed weak-field effects.

The quantities are discrete and nonzero (at minimum: NM ≥ 1, NS ≥ 3); no “infinities” arise, and the speed ceiling is physically unattainable.

“Light” speed

Let me reiterate: “light speed” is a local attribute of our bubble. The number c used by mainstream physics is the operational speed of the lightest available carriers that simultaneously transport the interaction on which our sensors are built (electromagnetism).

Therefore, the measured c is the photon’s speed ceiling under our specific conditions—within our energy band and at our medium’s metric saturation—i.e., a particular (though critically important) case of the general rule.

Without entering the territory of nucleosynthesis, I will formulate only the general criteria for the moment when c is finally established in our local physics:

  1. The mass emission window is closed. The amount of substance in the Universe bubble is fixed. Its structure begins to form—this sets the overall limit kinematics, but does not yet provide an operational “light speed”.
  1. Matter became “self-contained”. The cell charge becomes much smaller than the “grains” of substance; the gravitational influence of Qsq at the R* scale becomes negligible for the existing substance fraction.
  1. A stable “lightest” interaction carrier appeared. An excitation with the minimal available NM in this medium, stable against decay over path lengths much greater than R*, and universally tied to the interaction on which our instruments are built (electromagnetism). This is exactly the carrier we call the photon in the bubble.
  1. Universality and reproducibility of measurements. In the “flat window” (NS is nearly constant over R*), the measured speed of this carrier:
  • does not depend on direction within tolerances;
  • does not depend on frequency / energy within the operating range (no vacuum dispersion in this window).

Then this speed becomes an operational constant of the bubble—what classical physics calls the “speed of light”.

Planck constant

Obviously, the fixation of the limit speed simultaneously fixes the causal–quantum framework of the bubble’s future physics.

In the electromagnetic–radiative physics of our sensors there is an obvious “hint” at this moment, or its “vicinity”: the Planck time tp, earlier than which this physics refuses to operate. It is quite plausible that this very moment is the point of emission-window closure, at which c and the entire subsequent physics of this Universe bubble are formed. The emergence of a stable “lightest” carrier, the fixation of operational c, and the quantum of action h are events that finalize our bubble physics; they neither set nor constrain the SER’s own tick tabs. The time quantum tabs is expected to be substantially smaller than tp, and early processes (inflation, emission/closure of the substance emission window, etc.) naturally fit before and within the interval that the classical picture labels “Planckian”.

Together with the fixation of c and h, proto-excitations of the lattice acquire a field form: stable dispersions are established, action is quantized, interaction channels and quantum numbers are fixed. Before this moment we have “pre-field” excitations with sliding parameters; after it—particles in a 3D description.

Geometric etiology (hypothesis)

At the moment the emission window closes (see Inflation III. Curtain), the average cell dimension is still large (on the order of D ∼ 41 ± 1). Matter is present in all dimensions at once. Depending on which-dimensional subnetwork we observe matter from, we see the part of it that is “turned” toward that dimension—we observe it from that side.

“Carousel”

Any measurement in our three-dimensional laboratory is a projection of their full state onto three axes; we see only the “side of the carousel” that has turned toward us, while the rest remains off-frame. By repeating the observation, we “freeze” the carousel at different phases and obtain stable probabilities—precisely because the cell geometry consists of repeating, standard faces. Wavefunction collapse is not a whim of nature, but a geometric choice of projection.

In our 3D, this step manifests as the familiar quantization of energy and momentum—not because “particles are built that way”, but because inter-dimensional kinematics is granular in this way.

“Spinning top”

A spinning top with a red mark on its rim. While it spins fast, the mark enters the field of view through our “three-dimensional slit” more or less often—this is the probability of seeing “red”. A full rotation is the entire multi-dimensional configuration; an observation is an instantaneous projection. The statistics of repeated trials is not randomness “from nowhere”, but the geometry of rotations relative to 3D.

As dimension degrades toward D → 3, the invisible part of the “carousel” / the pauses between the mark hitting the “window” should shrink—quantumness becomes less vividly expressed as a purely geometric effect. On human time scales, nothing changes in practical quantum physics: h is already fixed and remains numerically the same. Local clocks speed up as the medium becomes rarified, while the number of projection variants decreases; these two effects compensate each other in the observed event rate. What changes is the probability distribution, not the “speed of the quantum”.

Spin

Spin is a stable class of orientations of a multi-dimensional configuration relative to the 3D subnetwork. Under projection from SO(D) to SO(3)/SU(2), exactly the classes we observe in fundamental physics remain: 0 (scalar), 1/2 (spinor), 1 (vector), 2 (tensor).

Intuitive rhymes.

  • Spin 0 (Higgs): a “fully symmetric” projection, resonating with the idea that mass interaction is a universal, dimension-invariant part of the picture.
  • Spin 1/2: a two-sheet orientation (return at 4π), naturally from SU(2).
  • Spin 1: a vector orientation of one “visible” axis relative to the window.
  • Spin 2: a symmetric tensor projection (a gravitational-wave-like class). If the gravitational interaction is fundamental, then such a necessity, apparently, does not arise.
Substance as anti-space (hypothesis)

It should also be noted that a more “symmetric” view of substance as “anti-space” may be fully viable, and quite possibly more adequate. The charges of substance and space have opposite signs: substance “borrows” mass from space; negative space charge drives space expansion; positive substance charge yields classical gravity; a positive gradient of metric inhomogeneities turns into a negative one, and so on. And it is expected that this “symmetry” will yield the same set of observable phenomena.

Seeng 01:04

«Lot shall I cast — and Spark shall shine forth,
Lot shall I cast — and Solid shall arise,
Lot shall I cast — and Posts shall take flight,
And Beatitude shall descend upon Seeng.»

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