Whitepaper is under construction and will be updated soon.
TrustGraph Protocol 2.0
Graph & AI-based Trust Evaluation Network for High-Risk Food / Seafood Supply Chains
TORO GRAPH 2.0
Trust Network Simulator
Nodes
Control Panel
Choose a network state to simulate
SECURE NETWORK
GNN detected no anomaly. Data flow is stable.
I. Vision & Technological Philosophy
The system completely resolves the "Garbage In - Garbage Out" (GIGO) dilemma on Blockchain using a Zero-Trust philosophy.
II. System Architecture (5 Core Layers Model)
The new architecture is built around two AI cores, processing data across 5 distinct layers:
Layer 1: Human Oracle Input Layer
The entry point for real-world data, including physical and logical checkpoints:
- Proof of Action: Users must upload media (photos/videos of feed packaging, water test results) with embedded metadata (GPS, Timestamp) instead of just entering text.
- Rule-based Validation: Automatically scans for basic logical errors (incorrect yield inputs, manipulation speed violations, duplicate IDs).
- DAG Topological Check: Ensures batches strictly follow the Directed Acyclic Graph (DAG) sequence, prohibiting any illegal bypasses.
[CORE 1] Network Graph Analytics Engine
Data is pushed into a Graph Database (e.g., Neo4j). This acts as the "Eye" of the system, utilizing Graph Neural Networks (GNN) to scan for micro and macro fraud behaviors:
- Collusion Clique Detection: Utilizes Louvain / Watts-Strogatz algorithms to identify closed node clusters (farmers/officials) continuously cross-verifying each other to form isolated factions.
- Pair-Risk Evaluation: Uses the Adamic-Adar index to monitor "Submitter/Approver" pairs. An overly high ratio of internal transactions triggers a red flag.
- Link Prediction: The GNN model proactively predicts an account's fraud risk based on its positional shift within the network, even before a violation occurs.
[CORE 2] Dynamic AI Risk Engine
This is the "Brain" delivering the final verdict. Replacing simple linear formulas, the system deploys Non-linear Machine Learning algorithms (such as XGBoost or Random Forest) to calculate:
- Contextual Adaptive Weights: The ML model self-adjusts risk levels based on time (disease seasons), geographical location, and batch nature.
- Risk Score (Ri): The metric evaluating the toxicity/fraud probability of a batch.
- Trust Score (Ti): A Beta Reputation System evaluating accumulated individual trustworthiness.
- Kill-switch Mechanism: Bypasses all past reputation, instigating an immediate rejection (Ri = MAX) if critical errors (e.g., banned antibiotic residue) are detected.
Layer 4: Execution & Consensus Layer
Based on Graph and Risk AI outputs, Smart Contracts automatically route the workflow:
Layer 5: Decentralized Storage & Oracle Ecosystem
- Only clean data that passes Layer 4 (along with Evidence Hash, Risk Score, and Trust Score) is permanently immutably written to the Blockchain.
- Oracle API Provision: Opens APIs allowing external systems to query verified trust data.
III. Incentive Mechanism & Game Theory
The system implements Game Theory to naturally steer user behavior toward honesty:
IV. Commercial Value Unlocking (New Business Models)
With this architecture, the project transcends traditional SaaS for a single seafood company, unlocking revenue from 2 core models:
1. "Trust Oracle API" Model (B2B)
- Packaging the system as a specialized Supply Chain Risk Oracle.
- E-commerce platforms, supermarket chains, or international certifiers (e.g., ASC, GlobalGAP) can call your API to ask: "What is the probability of documentation collusion risk for this shrimp batch?"
2. DeFi Agricultural Lending Model
- Integrating with Banks or Decentralized Finance (DeFi) protocols.
- Utilizing the Trust Score (Ti) and Farmer behavior graphs as a Decentralized Credit Score.
- Banks can automatically approve uncollateralized loans for farmers showcasing transparent networks and maintaining Risk Scores strictly within the Green Zone for 10 consecutive harvests.