Energy Density Flow Theory (EDFT): A Unified Process-Based Framework for Physics and Engineering (Version 1.0)

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Authors: amogh amogh
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Abstract

DescriptionThis record contains the collected theoretical corpus of Energy Density Flow Theory (EDFT) (Version 1.0).ScopeThe documents present a process-first framework describing reality as a continuous energy-density field undergoing irreversible adjustment.The work explores:Theoretical PhysicsExploratory derivations across macro-scale and micro-scale phenomena (including gravity, signal propagation, atomic stability, spectral structure, tunneling, radioactivity, and time behavior), developed without equilibrium assumptions or particle-based ontology.Process-Oriented AnalysisA signal-level, retrospective analytical formulation describing irreversible accumulation, redistribution, and exhaustion behavior in recorded time-series data. These formulations are presented at a mathematical and conceptual level only and do not constitute an operational engineering procedure or decision framework.Version 1.0 NotesThis corpus is provided for archival and timestamp purposes. The following known formatting errata exist in this version:Micro-EDFT VI: Equations 4 and 10 contain rendering syntax errors; the derivation logic remains intact.Numerical Capability: Table 1 contains a unit abbreviation typo (“asfs-” should read “as–fs”).EDFT V: The definition of propagation speed (c²) implies inclusion of a redistribution coefficient (D), formalized in Paper VI.DisclaimerThe contents represent independent theoretical research proposals and invite further validation and critique. No claim is made regarding experimental confirmation, institutional adoption, or engineering standardization.Author’s NoteReaders are directed to begin with 00_EDFT_READ_ME_ZERO.pdf, which defines the interpretive constraints and scope governing the entire framework.

Fields of Study & Subjects

Relativity and Gravitational Theory Advanced Mathematical Theories and Applications Quantum and Classical Electrodynamics

Publication details

Journal / source
Zenodo (CERN European Organization for Nuclear Research)
Publication date
27 January 2026
Document type
Preprint