D10Z-MIZAN-TTA: A Cryptographic Architecture for Food System Sovereignty in Water-Scarce Economies — Framework Specification v1.0
Abstract
This paper presents D10Z-MIZAN-TTA, a three-layer computational architecture designed to transform food system governance in water-scarce economies. Developed for the Kingdom of Saudi Arabia and extensible to GCC/MENA, the framework integrates: (Layer 0) D10Z, a multi-objective optimization engine for strategic resource allocation; (Layer 1) MIZAN, a cryptographic attestation protocol replacing institutional audit with mathematical proof; and (Layer 2) TTA, a deterministic governance system with executable thresholds and accountable human overrides. The framework addresses a critical failure mode in traditional food security policy: the mismatch between strategic planning horizons (5–10 years) and the operational decision velocity required by supply shocks (24–72 hours). By computationalizing the “decision stack” — from sensor data to ministerial action — D10Z-MIZAN-TTA claims 10–21× faster decision validation while maintaining verifiability and accountable override paths.Falsifier (speed): if median time-to-validated-decision does not improve by ≥10× versus the baseline ministerial workflow across N≥30 shock scenarios, the claim fails. Key technical contributions include: (1) the Φ-score metric for multi-dimensional agricultural efficiency; (2) MIZAN bundles, a JSON-based cryptographic proof format for physical production claims; (3) a formally specified state machine for automated governance transitions; and (4) explicit falsification criteria enabling empirical validation of system performance. Empirical application to Saudi Arabia indicates $13.37B projected savings over 3 years and 40–60% projected resilience improvement, contingent on published falsifiers and benchmark replication.Falsifier (resilience): if a chosen resilience metric (e.g., days-of-cover under shock, recovery time, or fill-rate) does not improve by ≥40% under standardized stress tests, the claim fails. Three operational pilots are specified for 2026 deployment: Food Shock Response (≤24h decision validation), MIZAN Verification (10-farm benchmark with offline-verifiable bundles), and TTA Water Governance (Al-Ahsa Oasis threshold enforcement with auditable overrides). The framework extends to regional collective action (GCC optimization), post-quantum cryptographic hardening, and algorithmic governance ethics. Document license follows the Zenodo record (CC BY-NC 4.0); code is released under MIT (and other permissive code licenses where explicitly stated in the repository artifacts). Keywords: food security, computational governance, cryptographic attestation, water scarcity, Saudi Arabia, GCC, MENA, optimization, blockchain, algorithmic policy, strategic autonomy JEL Classification: Q18 (Agricultural Policy), Q25 (Water), Q48 (Energy), O33 (Technological Change), D78 (Policy Design) UN Sustainable Development Goals: SDG 2 (Zero Hunger), SDG 6 (Clean Water), SDG 13 (Climate Action), SDG 16 (Peaceful Institutions) Technical Topics: optimization, cryptography, formal verification, IoT, blockchain, governance engineering
Fields of Study & Subjects
Blockchain Technology Applications and Security
Food Security and Socioeconomic Dynamics
Water-Energy-Food Nexus Studies
Publication details
- Journal / source
- Zenodo (CERN European Organization for Nuclear Research)
- Publication date
- 11 February 2026
- Language
- EN
- Document type
- Book