OmniTensor
  • Welcome
  • Introduction
    • What is OmniTensor?
    • Vision & Mission
    • Key Features
    • Why OmniTensor?
      • Current Challenges in AI
      • How OmniTensor Addresses These Challenges
  • Core Concepts
    • AI Grid as a Service (AI-GaaS)
      • Overview of AI-GaaS
      • Benefits of AI-GaaS
      • Use Cases of AI-GaaS
    • Decentralized Physical Infrastructure Network (DePIN)
      • GPU Sharing Model
      • Incentive Mechanisms
    • AI OmniChain
      • Layer 1 and Layer 2 Integration
      • AI Model Marketplace and Interoperability
    • DualProof Consensus Mechanism
      • Proof-of-Work (PoW) for AI Compute
      • Proof-of-Stake (PoS) for Validation
    • OMNIT Token
      • Overview
      • Utility
      • Governance
  • Tokenomics
    • Token Allocations
    • Token Locks
    • ERC20 Token
    • Audit
  • OmniTensor Infrastructure
    • L1 EVM Chain
      • Overview & Benefits
      • Development Tools & API
    • AI OmniChain
      • Interoperability
      • Scalability
      • Decentralized Data & Model Management
    • Nodes & Network Management
      • AI Consensus Validator Nodes
      • AI Compute Nodes (GPUs)
  • Roadmap & Updates
    • Roadmap
    • Future Features
  • PRODUCTS
    • AI Model Marketplace
    • dApp Store
    • Data Layer
    • Customizable Solutions
    • AI Inference Network
  • For the Community
    • Contributing to OmniTensor
      • Sharing Your GPU
      • Data Collection & Validation
    • Earning OMNIT Tokens
      • Computation Rewards
      • Data Processing & Validation Rewards
    • Community Incentives & Gamification
      • Participation Rewards
      • Leaderboards & Competitions
  • For Developers
    • Building on OmniTensor
      • dApp Development Overview
      • Using Pre-trained AI Models
    • SDK & Tools
      • OmniTensor SDK Overview
      • API Documentation
    • AI Model Training & Deployment
      • Training Custom Models
      • Deploying Models on OmniTensor
    • Decentralized Inference Network
      • Running AI Inference
      • Managing and Scaling Inference Tasks
    • Advanced Topics
      • Cross-Chain Interoperability
      • Custom AI Model Fine-Tuning
  • For Businesses
    • AI Solutions for Businesses
      • Ready-Made AI dApps
      • Custom AI Solution Development
    • Integrating OmniTensor with Existing Systems
      • Web2 & Web3 Integration
      • API Usage & Examples
    • Privacy & Security
      • Data Encryption & Privacy Measures
      • Secure AI Model Hosting
  • Getting Started
    • Setting Up Your Account
    • Installing SDK & CLI Tools
  • Tutorials & Examples
    • Building AI dApps Step by Step
    • Integrating AI Models with OmniTensor
    • Case Studies
      • AI dApp Implementations
      • Real-World Applications
  • FAQ
    • Common Questions & Issues
    • Troubleshooting
  • Glossary
    • Definitions of Key Terms & Concepts
  • Community and Support
    • Official Links
    • Community Channels
  • Legal
    • Terms of Service
    • Privacy Policy
    • Licensing Information
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On this page
  • Overview
  • The process typically involves three stages:
  • Data Collection
  • Data Validation
  • Validator's Workflow:
  • Incentives and Rewards
  • Key Benefits
  1. For the Community
  2. Contributing to OmniTensor

Data Collection & Validation

Data collection and validation are critical processes in ensuring the quality, reliability, and scalability of AI models deployed on the OmniTensor platform. By leveraging decentralized mechanisms, OmniTensor enables the community to contribute to data collection efforts while maintaining a high standard of data validation through blockchain-backed transparency. This decentralized approach ensures that diverse data inputs are aggregated and validated, enhancing the robustness and accuracy of AI models in real-world scenarios.

Overview

Community-driven data collection and validation in OmniTensor is essential for the training and fine-tuning of AI models. Contributors play a pivotal role in gathering, labeling, and validating datasets, which are then used to optimize AI models for different use cases. In return, contributors are rewarded with OMNIT tokens for their participation, fostering an incentive-based ecosystem that aligns the goals of AI model developers and the broader community.

The process typically involves three stages:

  1. Data Collection - Users contribute data through various methods, ranging from raw data submissions to crowd-sourced data labeling.

  2. Data Validation - Submitted data is reviewed and validated by community validators, who ensure the data meets quality standards.

  3. Reward Distribution - Upon successful validation, contributors are rewarded with OMNIT tokens, proportional to their contributions.

Data Collection

Community members can contribute data by participating in predefined data collection campaigns or by submitting data from their personal datasets. OmniTensor allows for a wide variety of data formats (e.g., text, image, audio, video), depending on the specific AI model or task in focus. Contributors can upload datasets via the OmniTensor dApp or through API integrations, making it accessible to both technical and non-technical users.

Example: Data Upload via CLI

To contribute data via the OmniTensor CLI, a user can follow the steps below:

# Authenticate with OmniTensor CLI
otensor-cli login --key <your_private_key>

# Submit data for a specific AI task
otensor-cli upload-data --task-id <task_id> --file <data_file_path>

# Confirm data upload
otensor-cli check-status --task-id <task_id>

Data Validation

After data is collected, a decentralized validation process is initiated. Validators, chosen through OmniTensor’s staking and governance mechanisms, assess the quality, accuracy, and appropriateness of the submitted data. Validators are responsible for verifying that the data meets the predefined standards and is suitable for model training. A consensus is reached through a blockchain-based validation process, ensuring that the data used in AI training is trustworthy and unbiased.

Validator's Workflow:

  1. Receive Data Batch - Validators receive data in batches and are assigned to validate a certain portion of the dataset.

  2. Validation Process - Validators assess the data for completeness, accuracy, and relevance to the task at hand. Any flagged data goes through an additional round of review.

  3. Consensus Mechanism - Using OmniTensor’s DualProof consensus, validators collectively agree on the validity of the data. Only data that passes a consensus is added to the AI model training datasets.

Example: Validator Assignment via SDK

from omnitensor.sdk import Validator

# Initialize validator session
validator = Validator(api_key='YOUR_API_KEY')

# Fetch the data batch to validate
data_batch = validator.get_data_batch(task_id='1234')

# Perform validation checks (e.g., accuracy, format)
validation_results = validator.validate(data_batch)

# Submit validation report to OmniTensor
validator.submit_results(validation_results)

Incentives and Rewards

Once the data has been validated, contributors and validators are compensated with OMNIT tokens. The reward distribution is based on the complexity and importance of the contributed data, as well as the validator's role in ensuring data integrity. Rewards are distributed in a transparent and automated manner, recorded on OmniTensor’s blockchain to ensure fairness and accountability.

  • Contributors - Earn OMNIT tokens for submitting high-quality, validated data.

  • Validators - Earn rewards proportional to their validation efforts and accuracy.

Example: Checking Rewards

# Check reward balance after validation
otensor-cli check-rewards --wallet <wallet_address>

Key Benefits

  • Decentralization - Data collection and validation are distributed across the community, eliminating centralized control and bias.

  • Transparency - All data submissions and validations are recorded on-chain, providing immutable records of contributions and decisions.

  • Incentivization - OMNIT tokens serve as a strong incentive for participants, aligning their interests with the success of the AI models.

  • Quality Control - A rigorous validation process ensures that only high-quality data is used, improving the performance and reliability of AI models deployed on the platform.

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Last updated 9 months ago