Kodeus.ai
  • Abstract
  • Introduction
  • K-MAF - Core Architecture
    • Agent Creation
    • LifeWeaver – The Fostering & Nurturing Framework
    • Training and Specialization – InfinityEvolve
      • SkillCrafter: Interactive Training Modules
      • Augmentix: Agent Ability Augmentation
      • MetaMind: The Adaptive Learning Framework
    • Multi-Agent Interaction Design – NeuroNexus
    • Security, Resilience and Loyalty - NeuroGuard
      • State Management and Recovery
      • Data Integrity and Compliance
      • Loyalty and Trust Mechanisms
  • Performance Optimization
    • Memory Optimization: Smarter Data Management
    • Energy Efficiency: Doing More with Less
    • Dynamic Resource Allocation: Smart and Flexible
    • Learning Optimization: Faster and Smarter Training
    • Scalability and Future-Proofing
  • Plugins and Integrations
  • Agentic Kodeus Protocol on Blockchain
    • NFT-Based Agent Representation (ERC721)
    • Token Bound Accounts (ERC4337) for Autonomous Operations
    • Agent Lifecycle and Ownership Transfer
    • Tokenized Economy and Agent-Specific Tokens
    • Leasing and Delegation Capabilities
    • Security and Compliance
  • The Kodeus Edge
    • Deployment in a Containerized Environment
    • System-Level Interactions
    • Advanced Automation and Decision-Making
    • Scalability and Portability
    • Enhanced Programming and Customization Capabilities
    • Gene-Based Agent Creation
    • Hierarchical Reinforcement Learning (HRL)
    • Decentralized Knowledge Base (DKB)
    • Integration Capabilities
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  1. Performance Optimization

Dynamic Resource Allocation: Smart and Flexible

PreviousEnergy Efficiency: Doing More with LessNextLearning Optimization: Faster and Smarter Training

Last updated 3 months ago

K-MAF employs advanced resource allocation strategies to ensure agents operate optimally across diverse environments.

  • Load Balancing: Computational resources are distributed dynamically across agents, reducing bottlenecks: Here, Rallocated is the resource assigned to an agent, NN is the total number of active agents, and Δpriority accounts for task-specific urgency.

  • Task Parallelization: Agents break complex tasks into smaller, independent subtasks, which are executed concurrently; This reduces overall execution time and improves efficiency.

  • Failover Mechanism: In case of agent or system failure, tasks are reassigned to other agents: This ensures seamless task execution with minimal disruption.