The General Theory of Data Physics
Data is a State Derivative
Data is not a static asset but the objective function of a physical state (S) over time (t). In the industrial vacuum, data validity exists only as a continuous state function.
The Three Fundamental Laws
The Three Fundamental Laws enforce the absolute trajectory of industrial systems by decoupling intrinsic state vectors from extrinsic context, calculating value through deterministic coupling, and establishing truth via temporal continuity.
Law I: Ontological Orthogonality
Intrinsic State Vectors : Universal physical fact derived directly from objective measurements. Invariant across all domains.
Extrinsic Context Layers : Context-dependent attributes derived from external environmental constraints.
Law II: Value Coupling Mechanics
Coupled Verification States: Real-time synchronization between the physical entity’s lifecycle and its digital twin.
Decoupled Asset Tokens: Mathematical extraction of specific attributes into independent digital objects for global liquidity.
Law III: Temporal Continuity Principle
System reliability is the integral of the asset’s performance history. Reliability is defined by continuous streams, neutralizing the trust gaps inherent in discrete snapshots.
The State Resolver: Resolution at Edge
The State Resolver enforces cross-domain interoperability by calculating the absolute state vector through specific field constraints. It ensures mathematical consistency and jurisdictional integrity without the entropy of raw data replication.
GLOBAL ASSET VERIFICATION MATRIX
Deterministic validation of the State Derivative axiom across global repositories.
The State Derivative Axiom () is permanently locked on the CERN Zenodo repository. This timestamp establishes the primary physical existence of industrial data entities.
Structural Integrity standards are calibrated within the SSRN policy domain. This ensures the deterministic resolution of data across divergent field constraints.