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  • Introduction
    • 🚀 Welcome to Datagram
    • What is Datagram?
  • Alpha Testnet
    • What Is Alpha Testnet?
    • Getting Started with the Alpha Testnet
  • Rewards
    • Datagram Rewards System
    • Datagram Points (Alpha Testnet Rewards)
    • DGRAM Token (Mainnet Rewards)
  • Datagram Architecture
    • Datagram Architecture Overview
    • Node Network
    • Fabric Networks
    • Datagram Core Substrate (DCS)
    • The Hyper Network Layer
  • DATAGRAM DESKTOP APPLICATION GUIDE
    • Datagram Desktop Application User Guide
    • Create a Datagram Account
    • Home Screen Guide
  • SETUP DATAGRAM
    • Desktop Application Setup
      • Mac (Silicon, Intel)
      • Windows
    • Partner Substrate Setup
      • Local Machine (Ubuntu/Linux)
      • VPS Servers
  • APIs
    • Get an API Key
  • SDKs
    • Video Conferencing
      • Web (external)
      • iOS (external)
  • Additional Tools
    • CLI (Command Line Interface)
    • Node License Tools
      • Desktop (Full Core License required)
      • Partner Substrate (Partner Core License required)
  • Documentation
    • Whitepaper
      • 1. Introduction & Project Overview
      • 2. Why Blockchain?
      • 3. Datagram Architecture
        • 3.1. The Datagram Node Network & Fabric Networks
        • 3.2. Datagram Core Substrate DCS: The Connectivity Layer
        • 3.3. The Hyper Network Layer
      • 4. Datagram in Action: Real-World Applications & Adoption
        • 4.1. Key Use Cases
        • 4.2. The Datagram Browser
        • 4.3. Business Implementation
      • 5. Tokenomics
        • 5.1. Tri-Token Model
        • 5.2. Supply & Distribution
      • 6. Datagram Rewards & Emissions Model
        • 6.1. Checkpoints
        • 6.2. Emissions Formula
      • 7. Datagram Governance
        • 7.1. Overview
        • 7.2. Voting Process
        • 7.3. Proposal Lifecycle
        • 7.4. Governance Dashboard
      • 8. Datagram Team
      • 9. Conclusion
  • EXTERNAL LINKS
  • Website
  • Dashboard
  • FAQs
  • Blog
  • Discord
  • X
  • Telegram
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  1. Datagram Architecture

The Hyper Network Layer

The Hyper Network Layer is Datagram’s AI-driven coordination system, responsible for intelligent routing, real-time network optimization, and parallel processing across the entire infrastructure. Unlike traditional DePIN networks that rely on static node assignments and predefined traffic rules, Datagram’s Hyper Network Layer actively manages data flow, resource allocation, and load balancing in real time—ensuring superior performance, scalability, and fault tolerance.

Key Features

  • Adaptive Traffic Routing: Continuously monitors network conditions and automatically redirects traffic to the most efficient nodes, preventing congestion and minimizing latency.

  • Real-Time Load Balancing: Dynamically distributes workloads across available resources based on real-time conditions, rather than relying on static configurations.

  • Intelligent Resource Allocation: Predicts usage patterns and proactively assigns compute, storage, and bandwidth to where they’re needed most, preventing bottlenecks before they occur.

  • Automated Network Healing: Instantly reroutes traffic in the event of node or subnet downtime, maintaining uninterrupted service and enhancing resilience.

  • UDP Optimization at Scale: Unlike most decentralized networks optimized for TCP, Datagram supports large-scale UDP traffic, making it uniquely capable of handling real-time use cases such as video streaming, multiplayer gaming, and AI processing without performance degradation.

Role in the Ecosystem

The Hyper Network Layer enables Datagram to outperform traditional DePIN architectures by acting as a dynamic AI controller for real-time infrastructure orchestration. Its ability to create dedicated subnetworks allows enterprises and DePIN projects to launch custom node networks within Datagram’s global infrastructure—benefiting from built-in security, scalability, and integration.

For example:

  • A decentralized video conferencing platform can leverage the layer to maintain low-latency communication for thousands of simultaneous participants

  • An AI compute provider can optimize training model execution by routing workloads to the most cost-efficient, high-performance nodes—minimizing latency and compute costs.

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Last updated 3 days ago