LogoLogo
Developer Docs
Developer Docs
  • Platform Architecture
    • πŸ’ Introduction
  • πŸ’»Application Layer
    • πŸ™‹β€β™€οΈAlith - AI Agent Framework
    • 🏦DeFAI: AI-Driven DeFi
    • πŸ›’DAT Marketplace
    • πŸš€Agent Launchpad
  • πŸ›‘οΈTrust & Execution Layer
    • Consensus Protocol
    • Settlement Layer
    • Execution Layer
    • Data Availability Layer
  • πŸ–‡οΈExetention Layer
  • Data Anchoring Token (DAT)
    • 🧠Introduction
    • πŸ”DAT Specification
    • πŸ’ŽValue Semantics
    • πŸ“DAT Lifecycle Example
  • Quorum-based BFT Consensus
    • πŸ’ŽIntroduction
    • πŸ› οΈiDAO-Quorum Interaction
    • πŸ“Quorum-Based BFT Protocol
    • 🫡Slashing & Challenger System
    • πŸŒ€Quorum Rotation & Benefit
  • Verified Computing Framework
    • πŸ”·Overview
  • πŸ—οΈVerified Computing Architecture
  • Contract & Execution Flow
  • LAZAI Workflow & Runtime
    • 🧩E2E Process
    • βš™οΈPOV Data Structure
    • πŸ”΅AI Execution Mechanism
  • What's More?
    • πŸ”Data Protection
  • πŸ›£οΈRoadmap
  • πŸ†ŽGlossary
  • ⁉️FAQs
Powered by GitBook
On this page
Export as PDF
  1. What's More?

Data Protection

Privacy and data security are fundamental to LazAI’s decentralized AI ecosystem. As AI development increasingly relies on personal and sensitive data, ensuring privacy, confidentiality, and data integrity becomes critical. LazAI integrates advanced cryptographic techniques and trusted computing environments to protect data at every stage of its lifecycle; during storage, processing, and computation.

By combining Zero-Knowledge Proofs (ZKPs), Federated Learning, Differential Privacy, Homomorphic Encryption, and Trusted Execution Environments (TEEs), LazAI guarantees that AI models and data can be securely shared, verified, and utilized without compromising user privacy or data sovereignty.

Zero-Knowledge Proofs (ZKPs)

ZKPs enable LazAI to verify data and computation results without revealing the underlying data. They allow trustless verification of AI model inference and reasoning processes, ensuring that sensitive information remains confidential.

  • Verifies off-chain AI computations on-chain without exposing raw data

  • Ensures integrity and correctness of inference results

  • Facilitates dispute resolution in data validation and governance

  • Protects sensitive AI assets and computations in cross-organization collaborations

Federated Learning

Federated Learning allows multiple parties to train AI models collaboratively without sharing raw data. Each participant trains a local model on their private data and only shares model updates (gradients), preserving data privacy.

  • Supports multi-party joint modeling across different iDAOs or Quorums

  • Prevents centralized data aggregation and enhances user privacy

  • Enables collaborative AI development for personalized and context-sensitive applications

  • Reduces data exposure risks in decentralized AI workflows

Differential Privacy

Differential Privacy introduces mathematically controlled random noise into datasets or model training processes to prevent the reverse engineering of individual data points.

  • Protects individual user privacy in data sharing and AI model training

  • Ensures AI models generalize on population-level data without leaking sensitive personal information

  • Complies with data protection standards and regulations across jurisdictions

Homomorphic Encryption

Homomorphic Encryption allows LazAI to perform computations directly on encrypted data without needing to decrypt it first. This maintains data privacy even during active processing.

  • Enables secure AI computation on private or sensitive datasets

  • Facilitates privacy-preserving inference services on LazChain and off-chain environments

  • Prevents unauthorized data access and computation tampering during execution

Trusted Execution Environments (TEEs)

TEEs provide hardware-level isolated environments for secure computation, ensuring that data and code remain confidential even from the operators of the host system.

  • Protects AI model training and inference processes in decentralized computing nodes

  • Safeguards cryptographic keys and sensitive data during execution

  • Provides hardware-enforced protection against malicious operators or external threats

  • Supports verifiable AI computation results by integrating with ZKPs and LAV mechanisms

PreviousAI Execution MechanismNextRoadmap

Last updated 1 month ago

πŸ”