DeAI: decentralized artificial intelligence
  • Introduction
    • General Terminology
  • Landscape
    • Data Providers
    • Computing Power
    • Model Training Task
    • Challenges
  • Privacy Preservation
    • Data Process
    • Privacy Preserved Training
    • Federated Learning
    • Cryptographic Computation
      • Homomorphic encryption
      • Multi-Party Computation
      • Trusted Execution Environment
    • Challenges
  • Security
    • Data Poisoning
    • Model Poisoning
    • Sybil Attacks
    • Impact of Large Models
    • Responsibility
  • Incentive mechanisms
    • Problem Formulation
    • Contribution Evaluation
    • Copyright
  • Verification of Computation
    • Computation on Smart Contract
    • Zero-Knowledge Proof
    • Blockchain Audit
    • Consensus Protocol
  • Network Scalability
    • Local Updating
    • Cryptography Protocol
    • Distribution Topology
    • Compression
    • Parameter-Efficient Fine Tuning
  • Conclusion
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  1. Landscape

Challenges

Achieving a fully Decentralized AI (DeAI) framework entails overcoming a series of intricate challenges:

  • Privacy Preservation: Preserving privacy while effectively utilizing data for model training poses a significant challenge. It necessitates sophisticated techniques to assess data quality and train models without divulging sensitive data, ensuring that model outputs do not contain privacy-compromising information.

  • Incentivization Mechanisms: Encouraging data providers to contribute high-quality data requires the implementation of robust incentivization mechanisms. These mechanisms should adequately compensate data contributors while also rewarding model trainers and other participants for their valuable contributions.

  • Verification of Computation: Establishing trust among participants in the DeAI network demands reliable mechanisms to verify computations. These mechanisms should ensure that all participants adhere to the agreed-upon protocols and accurately execute computations, thereby enhancing the overall integrity of the network.

  • Network Scalability: Overcoming bandwidth limitations is crucial for enabling the complete implementation of decentralized computing power, particularly for large-scale models with billions of parameters and the network with thousands of remote nodes. Addressing scalability challenges involves optimizing network architectures, improving communication protocols, and leveraging advanced networking technologies.

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Last updated 11 months ago