USDAI
  • Introduction
  • Why Compute-Backed?
  • Vision & Purpose
  • GPU.NET Ecosystem
    • What is GPU.NET?
    • Key Components of GPU.NET
    • GPU.NET’s Mission
    • USDAI’s Role in the Ecosystem
  • USDAI Mechanics
    • How USDAI Works
    • Pegging Mechanism
    • Collateralization
    • Issuance and Redemption
    • Stability Mechanisms
    • Why It Works
  • USDAI Architecture
    • Architecture
    • Supported Blockchains
    • Interoperability
    • Smart Contracts
    • Security Features
  • Use Cases
    • USDAI Applications
    • AI/ML Workload Payments
    • DeFi Integrations
    • Compute Reservations
    • Broader Implications
  • Acquiring USDAI
    • How to Acquire USDAI
    • Using USDAI
    • Developer Integration
  • Governance and Community
    • Governance
    • Roadmap
    • FAQ
    • Support & Community
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  1. Use Cases

Compute Reservations

Compute Reservations

USDAI’s integration with GPU.NET’s marketplace allows users to reserve and manage GPU compute resources efficiently, addressing both short-term and long-term needs with flexibility and precision.

Pre-Booking: Securing Resources Ahead of Time

  • Purpose: Users can lock USDAI to pre-book GPU resources, ensuring availability during high-demand periods like AI research deadlines or product launches.

  • How It Works: Through Dapp.gpu.net, users commit USDAI to reserve compute capacity for a future date. The system locks the tokens, allocating resources from GPU.NET’s provider pool based on availability and pricing.

  • Example: An AI startup anticipates a surge in model training needs during a hackathon. They lock 200 USDAI to secure 200 GPU-hours a month in advance, avoiding last-minute shortages or inflated costs.

  • Benefits: Pre-booking with USDAI guarantees access, mitigates supply risks, and provides cost certainty, critical for time-sensitive projects.

Dynamic Scaling: Real-Time Compute Adjustments

  • Purpose: USDAI credits allow users to adjust compute allocations dynamically, scaling resources up or down in response to real-time needs without delays.

  • How It Works: Users burn USDAI to access additional GPU capacity instantly or release unused credits back to the network, with allocations managed via smart contracts on GANChain or Solana.

  • Example: A gaming company rendering real-time graphics for a live event starts with 50 USDAI worth of compute. As player demand spikes, they add 20 USDAI to scale up GPU resources seamlessly, then scale down post-event.

  • Benefits: Dynamic scaling ensures efficient resource use, minimizes waste, and adapts to fluctuating workloads—ideal for applications like live AI inference or on-demand HPC.

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Last updated 3 months ago