Akashic
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  • Akashic
  • Empower
  • Ecosystem
    • Ubiquitous Trust Network (UTN)
      • Cross-chain service interaction
      • AI-driven Agents
      • Private Computation
      • Decentralized Verification
      • Programmable Trust and Governance
    • DeFi
      • Principle of Restaking Agreement
        • Robust Security
        • Adaptability
        • Trust and Reliability
        • Economic Sustainability
        • Support for High-Value and Complex Transactions
        • Interoperability Support
      • Principle of the Proof-of-Work (PoW) Mechanism in Akashic Blockchain
        • Core Principles of Proof-of-Work Mechanism
        • Objectives of Proof-of-Work in Akashic
        • Technical Framework of Proof-of-Work
        • Advantages of PoW in Akashic
        • Use Cases of PoW in Akashic Ecosystem
        • Challenges and Akashic’s Solutions
    • NFTs
    • GameFi
    • Nodes
      • Roles of Nodes in Akashic Blockchain
      • Operational Logic of Nodes
      • Architectural Structure of Akashic Nodes
      • Scalability and Decentralization
      • Benefits of Akashic’s Node Logic and Structure
      • Node Use Cases in Akashic’s Ecosystem
    • Application
      • Advanced Artificial Intelligence Systems
      • Distributed Computing Resource Infrastructure
      • Cross-chain Solutions
      • Web3.0 and DDVS Expansion
      • Investment and Asset Management
      • Virtual Machines
      • Integration with Real-world Assets
      • Automated Market Makers (AMM)
  • Core Tech
    • 12 Core Technical Strengths
      • TSS-Based Cross-Chain Communication
      • Multi-Mode Token Issuance
      • Five Transaction Methods
      • Hybrid Swap Pool Model
      • Decentralized Staking (DVS)
      • Super EVM Architecture
      • Parallel Chain Deployment
      • Zero Gas Incentive
      • Dual Address Structure
      • Native + Standard Swap Protocols
      • Dual Blockchain Explorers
      • Full Homomorphic Encryption (FHE)
  • Why AKC
    • Interoperability
    • Developer-Centric
    • User Experience
    • Built
  • Tokenomics
    • Token Distribution
    • Use Cases
    • Utility & Value
  • RoadMap
    • Development
  • Stay Connect
  • FAQ
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On this page
  • What Is DDVS?
  • Why It Matters
  • How It Integrates
  1. Ecosystem
  2. Ubiquitous Trust Network (UTN)

Decentralized Verification

Validate agent actions, service logic, and cross-chain execution with DDVS.

In the UTN architecture, Decentralized Distributed Validation Services (DDVS) serve as the trust engine a validator network designed not for blocks, but for services.

DDVS ensures that every agent interaction, service execution, or cross-chain request is verifiably correct, tamper-proof, and fully decentralized without relying on centralized oracles or off-chain gateways.

What Is DDVS?

DDVS is a network of independent validators that:

  • Observe and verify service requests and agent executions

  • Validate cross-chain message integrity (via CMq)

  • Confirm agent logic compliance and service outputs

  • Issue deterministic validation outcomes, either approving, rejecting, or flagging service behavior

All validation is performed transparently, cryptographically, and in a trustless environment.

Why It Matters

  • No single point of trust: Verification is distributed across nodes removing central gatekeepers

  • Verifies service outcomes: Did the loan get issued correctly? Did the AI agent follow rules? Did cross-chain tokens actually settle?

  • Supports arbitration and reputation: Validation results can be used to assess service quality and score reliability

How It Integrates

  • With CMq: DDVS verifies cross-chain message delivery, order, and authenticity

  • With AI Agents: Every agent behavior is logged and checked against its declared logic and permissions

  • With FHE: Even encrypted service outputs (e.g. credit scores, AI decisions) can be validated without revealing the data

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Last updated 15 days ago