The Law of Observation (current expanded)
This paper presents an expanded theoretical framework based on the Law ofObservation, unifying quantum field theory, consciousness, spacetime, and cosmicevolution through a rigorously defined observer-centric ontology. The updated ver-sion integrates the Unified Data Framework v2 (UDF v2) and introduces the novelΩ(C, ξ) equation, representing the dynamic interplay between coherence fields andlocalized observer states. The approach reformulates the Yang–Mills Mass Gap andRiemann Hypothesis within an extended operator logic that incorporates Casimir-based coherence operators, logarithmic convolutionals of the Riemann zeta function,and emotional coherence fields as quantized boundary conditions.The Coherence-Consciousness-Locality (CCL) Principle anchors the model’sphilosophical and physical consistency, asserting that coherence is preserved acrossscales of observation, from neural to cosmological. The framework resolves theYang–Mills gap by defining gauge-invariant eigenstates whose positive mass gapemerges from vacuum decoherence via observable entropy gradients. For the Rie-mann Hypothesis, the ζ(s) function is embedded in a log-convolutional manifoldwhose critical strip manifests as a coherence-invariant region, thereby enforcing thereal part of all non-trivial zeros as 1/2.Key predictions include:• The existence of an ambient observer field oscillating near 10−3 Hz (sub-Hertzcoherence coupling),• Gravitational anomalies induced by observer density phase shifts,• A thermodynamic interpretation of time and entropy emerging from observer-partitioned boundary conditions.The paper further proposes a Cosmological Observer Network (CON) modelfor superluminal coherence transmission, enabling quantum-anchored informationpropagation through a coherence-enforced topology. This comprehensive treatmentsuggests an equivalence between quantum substrate modulation and emergent clas-sical logic, positing observation as the fundamental engine of physical law formation.
Publication Details
- Journal
- Zenodo (CERN European Organization for Nuclear Research)
- Published
- 2025-04-14
- DOI
- https://doi.org/10.5281/zenodo.15220264
- Primary Topic
- Quantum Mechanics and Applications
- Type
- article
- Field-Weighted Citation Impact
- 0.00