Published March 30, 2025 | Version Ver1.0
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Collapsing Causality through Structural Tension:Information-Energy Phase Transition

Description

🌌 "Observation is collapse."

— A Topological, Informational, and Energetic Rewriting of Quantum Reality —

"Glass holds together because of its intrinsic bonds.
Untouched, it would have remained whole.
But you struck it — with a hammer named Observation.
And in that impact, irreversible structural collapse was born."

IEPT as a Deterministic Collapse Theory

This dataset and paper propose a novel theoretical framework:
Information Energy Phase Transition Theory (IEPT).

Unlike conventional interpretations that treat observation as a neutral act,
IEPT describes observation as an energetic and causal transaction
a projection of structural tension that induces irreversible collapse.

🔬 Key Contributions

  • Introduction of a dual-layer tensor field model:
    Predictive structure Λ<sub>F</sub> and observational structure Λ<sub>C</sub>

  • Definition of topological response indicators:

    • Φ₁(t): Tension Convergence

    • Φ₂(t): CP-Asymmetric Rotation

    • Φ₃(t): Torsional Collapse Signature

  • Mapping of topological features to informational tension density ρ<sub>T</sub>(s)

  • Empirical estimation of collapse energy:
    E<sub>collapse</sub> ≈ 0.5–0.6 GeV

  • Theoretical integration with:
    Decoherence, POVM, Entanglement, and Quantum Jump models

🧠 Main Insight

Observation is not passive.
It is a causal, energetic, and informationally transformative act.

This work redefines collapse as a torsion-induced phase transition,
triggered by the energetic impact of observation itself.

📁 Note on Data & Precision

The quantitative values used (Φ₁–Φ₃, ρ<sub>T</sub>, E<sub>collapse</sub>) are extracted from
visual interpretation of figures in Phys. Rev. Lett. 134.071901,
and should be regarded as approximate trend indicators.

A more precise validation can be achieved once direct access to
the raw experimental data becomes available.

Files

CollapsingCausalitythroughStructuralTension.pdf

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Additional details

Related works

Cites
Preprint: 10.5281/zenodo.15069301 (DOI)

Dates

Created
2025-03-30

References

  • @article{PhysRevLett.134.071901, title = {Transverse Force Distributions in the Proton from Lattice QCD}, author = {Crawford, J. A. and Can, K. U. and Horsley, R. and Rakow, P. E. L and Schierholz, G. and St\"uben, H. and Young, R. D. and Zanotti, J. M.}, collaboration = {QCDSF Collaboration}, journal = {Phys. Rev. Lett.}, volume = {134}, issue = {7}, pages = {071901}, numpages = {7}, year = {2025}, month = {Feb}, publisher = {American Physical Society}, doi = {10.1103/PhysRevLett.134.071901}, url = {https://link.aps.org/doi/10.1103/PhysRevLett.134.071901} }