Cortensor
  • Home
  • Abstract
    • Value Proposition
    • Whitepaper
      • Page 1: Introduction and Vision
      • Page 2: Architecture and Technical Overview
      • Page 3: Incentive Structure and Tokenomics
      • Page4: Development Roadmap and Phases
      • Page5: Summary
  • Introduction
    • What is Cortensor?
    • Key Features & Benefits
    • Vision & Mission
    • Team
  • Getting Started
    • Quick Start Guide
    • System Requirements
    • Installation & Setup
      • Getting Test ETH
      • Setup Own RPC Endpoint
      • Router Node Setup
        • Router API Reference
  • Core Concepts
    • Decentralized AI Inference
      • Community-Powered Network
      • Gamification and Quality Control
      • Incentive Structure
    • Universal AI Accessibility
    • Multi-layer Blockchain Architecture
  • Technical Architecture
    • Design Principles
    • Node Roles
    • Node Lifecycle
      • Ephemeral Node State
    • Node Reputation
    • Network & Flow
    • Type of Services
    • Coordination & Orchestration
      • Multi-Oracle Node Reliability & Leadership Rotation
    • AI Inference
      • Open Source Models
        • Centralized vs Decentralized Models
      • Quantization
      • Performance and Scalability
    • Consensus & Validation
      • Proof of Inference (PoI) & Proof of Useful Work (PoUW
      • aka Mining
      • Proof of Useful Work (PoUW)
      • Proof of Useful Work (PoUW) State Machine
        • Miner & Oracle Nodes in PoUW State Machine
      • Sampling in Large Distributed Systems
      • Parallel Processing
      • Embedding Vector Distance
    • Multi-Layered Blockchain Architecture
    • Modular Architecture and Smart Contract Interactions
      • Session Queue
      • Node Pool
      • Session Payment
    • Mining Overview
    • User Interaction & Node Communication
      • Session, Session Queue, Router, and Miner in Cortensor
    • Data Management
      • IPFS Integration
    • Security & Privacy
    • Dashboard
    • Development Previews
      • Multiple Miners Collaboration with Oracle Node
      • Web3 SDK Client & Session/Session Queue Interaction
    • Technical Threads
      • AI Agents and Cortensor's Decentralized AI Inference
    • Infographic Archive
  • Community & Ecosystem
    • Tokenomics
      • Network Incentive Allocation
      • Token Allocations & Safe Wallet Management
    • Staking Pool Overview
    • Contributing to Cortensor
    • Incentives & Reward System
    • Governance & Compliance
    • Safety Measures and Restricted Addresses
    • Buyback Program
    • Liquidity Additions
    • Partnerships
      • Partnership Offering for Demand-Side Partnerships
    • Community Testing
      • Closed Alpha Testing Phase #1
        • Closed Alpha Testing Phase #1 Contest: Closing & Winners Announcement
      • Closed Alpha Testing Phase #2
      • Closed Alpha Testing Phase #3
      • Discord Roles & Mainnet Privileges
      • DevNet Mapping
      • DevNet Modules & Parameters
    • Jobs
      • Technical Writer
      • Communication & Social Media Manager
      • Web3 Frontend Developer
      • Distributed Systems Engineer
  • Integration Guide
    • Web2
      • REST API
      • WebSocket
      • Client SDK
    • Web3
      • Web3 SDK
  • Use Cases
  • Roadmap
    • Technical Roadmap: Launch to Next 365 Days Breakdown
    • Long-term Vision: Beyond Inference
  • Glossary
  • Legal
    • Terms of Use
    • Privacy Policy
    • Disclaimer
    • Agreement for Sale of Tokens
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On this page
  • Collaborative Ecosystem
  • Incentive Structures
  • Supply-Side Development
  • How It Works
  • Benefits
  1. Core Concepts
  2. Decentralized AI Inference

Community-Powered Network

Cortensor's decentralized AI inference is fundamentally driven by its community, creating a collaborative ecosystem that fosters innovation and ensures the network's growth and sustainability.

Collaborative Ecosystem

  • Diverse community of developers, researchers, and users contribute to the network's development and expansion.

  • Open-source approach encourages continuous improvement and innovation.

Incentive Structures

  • Token-based rewards ($CORTENSOR) incentivize participation and high-quality contributions.

  • Nodes earn tokens for performing network liveness checks, health checks, and serving user requests.

  • Tiered reward system ensures nodes are consistently available and capable of handling AI tasks.

Supply-Side Development

  • Community members are encouraged to provide and run binary/system images, becoming stateless validators/ranking systems.

  • Gamified approach with Level 1 (liveness checks) and Level 2 (capability assessment) fosters competition and ensures a robust network.

How It Works

  1. Task Submission: Users or services submit AI inference tasks to the Cortensor network.

  2. Intelligent Routing: Router nodes analyze the task requirements and available node capabilities.

  3. Task Distribution: The task is assigned to appropriate inference nodes based on their performance metrics and current workload.

  4. Parallel Processing: Multiple nodes may work on different aspects of a task simultaneously, enhancing speed and efficiency.

  5. Result Validation: Guard/validation nodes verify the results to ensure accuracy and detect potential fraudulent activity.

  6. Result Delivery: Verified results are securely delivered back to the user or service.

Benefits

  • Enhanced Reliability: Distributed architecture minimizes downtime and service interruptions.

  • Improved Performance: Parallel processing and intelligent routing optimize task completion times.

  • Cost-Effective: Users can access high-performance AI inference without investing in expensive hardware.

  • Privacy-Focused: Decentralization inherently enhances data privacy by avoiding centralized data storage.

  • Community-Driven Innovation: Continuous improvement through community contributions and feedback.

Future Developments

Cortensor plans to expand its decentralized AI inference capabilities to support a wider range of AI models and use cases, including:

  • Advanced natural language processing

  • Computer vision tasks

  • Predictive analytics

  • Specialized domain-specific AI models


Disclaimer: This page and the associated documents are currently a work in progress. The information provided may not be up to date and is subject to change at any time.

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Last updated 8 months ago