The Institute of Data Physics & Global Interoperability Standards
The Deterministic Logistics Layer for Digital Value.
We publish the fundamental axioms of Data Physics, defining the deterministic interoperability architecture for the global industrial ecosystem across heterogeneous operational domains. Bita Trust eliminates the cross-domain connectivity friction between physical entities and their digital shadows through physical first principles.
The Data Physics Trilogy
Industrial data functions as a dynamic “State Derivative” (D=dS/dt) of the physical world. We establish a deterministic framework for the digital universe, elevating abstract information theory into measurable physical governance.
The General Theory of Data Physics: A First-Principles Framework for Global Industrial Interoperability
Establishing the initial axioms of data as physical state displacement.
The General Theory of Data Physics: For Industrial Assetization and Cross-Domain Interoperability
Defining Physical Resistance (Rphysical) to enable global data assetization.
The General Theory of Data Physics: For Non-Dependent Data, AI Cognition, and Quantum Anchoring
Quantifying AI logic as Crystallized Negentropy via Virtual Mass (m-virt).
Global Standards Architectural Mapping
An inherent physical boundary exists between absolute supply chain transparency and core data residency. Bita Trust defines the D=dS/dt architectural resolution at the substrate layer, establishing the baseline for multilateral network trust. Operating with absolute bidirectional adaptability, this architecture supports the closed-loop circulation of cross-domain data between equivalent production and consumption endpoints.
Interoperability Endpoint: China
Regulatory Framework
- Data Security Law of the People’s Republic of China
- Cybersecurity Law of the People’s Republic of China
- Provisions on Promoting and Regulating Cross-border Data Flows
Standardization Framework
- GB/T 43697-2024 Data Security Technology – Rules for Data Classification and Grading
- GB/T 32150-2015 General Rules for Greenhouse Gas Emissions Accounting and Reporting of Industrial Enterprises
Interoperability Endpoint: EU
Regulatory Framework
- Regulation (EU) 2023/2854 (Data Act)
- Regulation (EU) 2024/1781 (Ecodesign for Sustainable Products Regulation – ESPR)
- Regulation (EU) 2023/1542 (Batteries Regulation)
Standardization Framework
- EN 18216 / EN 18219 / EN 18220 / EN 18221 / EN 18222 / EN 18223 (CEN/CLC/JTC 24 Digital Product Passport)
- FprEN 18239 / FprEN 18246 (Commercial Confidentiality & Data Verification)
Multilateral Interoperability
UN/CEFACT Protocols and Standards
- United Nations Transparency Protocol (UNTP)
- UN/CEFACT Supply Chain Reference Data Model (SCRDM)
- UN/CEFACT Verifiable Credentials Cross-Mapping Framework
ISO Global Standards
- ISO 14067:2018 (Greenhouse gases — Carbon footprint of products)
- ISO 14040:2006 / ISO 14044:2006 (Life cycle assessment)
- ISO/IEC 27001:2022 (Information security management systems)
The Three Laws of Architecture
These laws are derived from the first principles of the General Theory of Data Physics. Industrial data functions as a dynamic State Derivative ( D = dS/dt ) of the physical entity. This architectural framework systematically decouples intrinsic physical attributes from extrinsic compliance contexts, defines specific value coupling mechanics, and enforces continuous state synchronization across heterogeneous domains.
Ontological Orthogonality & State-Asset Decoupling
Architecturally decoupling Universal Physics (Intrinsic State Vectors) from Context-Dependent Social Constructs (Extrinsic Context Layers). Allowing the former to flow globally while the latter remains locally secured within physical boundaries.
The Mechanics of Value Coupling
Strictly distinguishing the systemic mechanics between Coupled Verification States (e.g., real-time digital twins tightly bound to physical lifecycles) and Decoupled Asset Tokens (e.g., independently tradeable carbon attributes in green finance).
The Temporal Continuity Principle
Trust cannot be built on paperwork. Replacing high-entropy “static reports” (PDF snapshots) with low-entropy “Continuous State Functions” (integral streams), ensuring the digital thread stays synchronized with the physical asset throughout its lifecycle.
Let’s move beyond metaphors and build a digital economy governed by the rigor of physics.
Trust cannot be built on paperwork; it must be engineered into the architecture of the data itself. We invite industrial leaders, standard-setters, and technology architects to connect and collaborate on the deterministic future of cross-domain data.
