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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
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  • Restaking Ensures the Integrity of Transactions:
  • Protection Against Cross-chain Fraud:
  1. Ecosystem
  2. DeFi
  3. Principle of Restaking Agreement

Robust Security

PreviousPrinciple of Restaking AgreementNextAdaptability

Last updated 4 months ago

Restaking Ensures the Integrity of Transactions:

  • Dual-layer Security: The Restaking Agreement provides a dual-layer security model where validators not only stake an initial amount of collateral but are also required to restake additional assets for higher-risk operations, like cross-chain transactions. This additional collateral guarantees that the validator is financially invested in the success and integrity of the operation. The dual-layer system ensures that if validators act maliciously or fail to validate correctly, they stand to lose both their base stake and restaked collateral. This strengthens the security of each transaction processed within the Akashic ecosystem.

  • Financial Accountability for Validators: Restaking makes validators financially accountable for their actions. This ensures that validators have a strong incentive to act honestly because they stand to lose a significant amount of their own collateral if they are found to be dishonest. This setup creates a self-regulating system that discourages malicious behavior, ensuring a secure and trustworthy network.

Protection Against Cross-chain Fraud:

  • Cross-chain Risk Management: Cross-chain transactions introduce additional risks, such as double-spending or invalid data transfer. The restaking mechanism mitigates these risks by requiring validators to commit additional collateral before validating cross-chain operations. This ensures that validators have a greater incentive to double-check transactions and prevent fraudulent activities.