The Theory of Light-Decoupled Structural Fields
The Theory of Light-Decoupled Structural Fields (TLSF)Subtitle: A Structural-Theoretical Approach to Causality-Free Motion of Massless Systems Summary:The TLSF introduces an independent structural model for understanding massless systems — specifically light — that operate outside the cyclic causality framework established in the Locally Relative Expansion Unit theory (LRAE). It postulates that because light has no mass, it possesses no structural memory (L), and therefore is not subject to nonlinear impulse access (T). This makes light unique in the universe: it travels through space without participating in structural deformation, impulse-driven modulation, or entropy increase. Key Concepts: * Light does not follow the cycle NL → L → T → NL.* It lacks linear structure (L = 0) and is thus decoupled from temporal impulse T.* It moves in pure dynamic nonlinearity (NL) without causality or thermodynamic decay.* No relativistic mass increase occurs — because no mass is present.* Light influences but is not influenced by the structural fabric of spacetime. Scientific Significance:TLSF offers a theoretical bridge between field theories and quantum optics by proposing a causal-structural distinction between massless and massive systems. It respects and complements the principles of LRAE but highlights light’s exceptional status in the fabric of physical law. Use Cases: * Clarifying the role of photons in relativistic and thermodynamic models.* Providing a framework for understanding why light remains unaffected by temporal deceleration.* Offering insights into quantum decoherence limits for massless systems.Autorschaft: Andreas Jung Mit Unterstützung durch: KI (ChatGPT, OpenAI) Lizenz: Creative Commons Attribution 4.0 International (CC BY 4.0) Veröffentlichung: Juni 2025Kontakt: [email protected]
Publication Details
- Journal
- Zenodo (CERN European Organization for Nuclear Research)
- Published
- 2025-07-04
- DOI
- https://doi.org/10.5281/zenodo.15808341
- Primary Topic
- Quantum Mechanics and Applications
- Type
- article
- Field-Weighted Citation Impact
- 0.00