This repository contains the source of the paper on projective temporal ordering and cumulative projected capacity
(paper of the Cosmochrony / spectral admissibility programme).
This work introduces a structural notion of temporal ordering based on the cumulative projected capacity observable
Starting from the spectral admissibility cascade, we identify a monotone
accumulation variable that measures the amount of spectral structure
stably projected up to depth
We then show that:
-
$I(n)$ is strictly non-decreasing along all tested admissible trajectories, - temporal ordering emerges as a projective relation, not a dynamics,
- monotonicity reflects a one-way activation mechanism in spectral space,
- the construction is fully compatible with observable rank stability (O24).
The derivation requires no background time parameter, no thermodynamic assumption, and no dynamical evolution of the substrate. Temporal ordering appears as a structural consequence of non-injectivity.
The paper proceeds in three logical steps:
-
Identification of the correct observable
The natural spectral observable$\sigma_{\mathrm{pair}}(n)$ measures residual projective capacity and is strictly decreasing. Its complement$I(n)$ instead measures cumulative projected structure and is the only candidate compatible with a monotone ordering. -
Projective temporal ordering
Time is defined as an ordering relation on admissible projections:$U_t \prec U_{t+1} \iff I(U_t) \le I(U_{t+1})$ .This ordering does not correspond to motion in the substrate
$\chi$ , but to changes in admissible selections$\sigma(U_t) \in \Pi^{-1}(U_t)$ under a fixed non-injective projection$\Pi$ . -
Structural irreversibility (one-way activation)
Numerical results show that once spectral modes are stably projected, they do not deactivate. This induces a strictly monotone accumulation of structure and provides a non-thermodynamic form of irreversibility.
The paper establishes the following statements:
-
Temporal ordering arises from cumulative spectral projection
The observable$I(n)$ provides a monotone ordering parameter intrinsic to the admissibility cascade. -
Time is not a fundamental parameter of the substrate
The ordering is induced by the structure of admissible projections, not by an evolution of$\chi$ . -
Non-injectivity is the origin of temporal ordering
The multiplicity of fibres$\Pi^{-1}(o)$ implies that successive admissible selections generate an intrinsic ordering. -
Irreversibility is structural, not thermodynamic
The one-way activation property reflects accumulation of admissible spectral structure without invoking entropy or probability. -
Observable rank remains invariant
Temporal progression reorders admissible configurations but does not increase the observable rank, in agreement with O23–O24.
To avoid conflating structural and dynamical notions of time, the paper does not assume:
- a fundamental time parameter,
- a dynamical evolution of the substrate
$\chi$ , - thermodynamic entropy or coarse-graining,
- probabilistic interpretation of the cascade,
- any background spacetime structure.
The analysis is entirely projective and spectral.
Temporal ordering, non-injectivity, spectral admissibility, cumulative capacity, irreversibility, projective dynamics, emergence of time
paper/
├── pdf/ # Compiled paper PDF
├── tex/ # LaTeX sources
└── README.md
- 📄 Paper PDF
- 🌐 Website: https://cosmochrony.org
If you reference this work, please cite:
J. Beau, Projective Temporal Ordering and Cumulative Projected Capacity, 2026.
Portions of the editorial refinement benefited from iterative interactions with
large language models.
These tools were used as analytical assistants for exploring alternative
formulations, checking internal consistency, and improving clarity.
All claims, interpretations, and final formulations remain the sole
responsibility of the author.
This repository is intended as a research reference.
Critical feedback, independent analyses, and formal scrutiny are welcome.
Please open an issue to discuss conceptual points, monotonicity mechanisms,
possible counterexamples, or extensions to larger primes.