"Quantum" Collisions, Phasor Dynamics, and Photon Emergence in HoloGenesis + Addendum I & II
In the HoloGenesis (HG) framework, particle collisions are not mechanical impacts but interactions of coherent phasor tips within the dark-cloud lattice. Each phasor tip carries a Slot-defined frequency, flux polarity, spin, and coherence envelope, all constrained by local lattice curvature. High-Slot collisions, such as proton–proton impacts, generate transient frequency states and cascading particle showers, whereas low-Slot, opposite-polarity collisions, such as electron–positron annihilation, reorganize phasor tips into Slot-0 propagating lattice gliders — observed as photons. A detailed tabulation of frequency, spin, polarity, and Divalence conservation demonstrates that these processes preserve coherence and re-syntonize phasor dynamics, supporting the claim that matter is fundamentally composed of phasor tips rather than solid constituents. Through this framework, HoloGenesis shows that what we perceive as matter is not intrinsically material. Observable particle properties — mass, spin, apparent shape — emerge from the dynamic inscription of frequency in the lattice, not from pre-existing structural elements. Collisions, photon emission, and high-energy transients are all manifestations of the same lattice-mediated, frequency-based interactions. In every case, total frequency, coherence, and polarity are conserved, and the emergent phenomena reflect the interaction rules of phasor tips under lattice constraints. HG therefore unifies disparate experimental outcomes under a single ontology and reveals that matter itself is an emergent projection of coherent dynamics, a secondary phenomenon arising from the deeper substrate of frequency inscription. © 2025 Grégoire Mommaerts, HoloGenesis. This work is protected under international copyright law.
Publication Details
- Journal
- Zenodo (CERN European Organization for Nuclear Research)
- Published
- 2025-09-18
- DOI
- https://doi.org/10.5281/zenodo.17152205
- Primary Topic
- Geochemistry and Geologic Mapping
- Type
- article
- Field-Weighted Citation Impact
- 0.00