DÆTA
  • DÆTA
  • DÆTA Storage
    • Overview
    • Vision
    • Problem Statement
    • Market Opportunity
  • Use DÆTA
    • DÆTA Account
    • DÆTA Client
    • Use DÆTA App
  • Core Concepts
    • Decentralized Storage
    • Storage Nodes
    • Storage Contracts
    • Encryption and Security
  • Node Operations
    • Storage Node
    • Node Management
    • Performance Optimization
  • DÆTA Framework
    • Key Components
      • Users
      • Nodes
      • Satellites
    • Data Flow
    • Redundancy and Data Repair
    • Blockchain Compatibility
    • Third-party Integrations
    • Industry Use Cases
  • DÆTA LVRG
    • Overview
    • Vision
  • Key Features
    • GPT-to-Earn
    • Open Data Marketplace
  • Data Components
    • Datasets
    • Autonomous Agents
  • Data Sovereignty & Decentralization
    • Data Sovereignty
    • Decentralization & Censorship Resistance
  • How to Get Started
    • Install DÆTA LVRG Extension
  • Tokenomics
    • DÆTA Token
    • Utility and Economic Mechanism
    • Staking and Rewards
    • Allocations
  • Resources
    • Roadmap
    • FAQ
    • Glossary
    • Contact
    • Legal Disclaimer
    • Compliance
  • External Links
    • Website
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    • GitHub
    • Whitepaper
    • Token Audit
    • LVRG Audit
    • LinkTree
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  1. Core Concepts

Encryption and Security

DÆTA implements cutting-edge encryption and security protocols to protect the privacy and integrity of all stored data.

DÆTA employs state-of-the-art encryption and security measures to ensure the privacy and integrity of stored data.

Encryption Layers

AES-256-GCM for file encryption

Unique key generated for each file

TLS 1.3 for all network communications

Additional encryption applied to individual file shards

Key Management
graph TD
    A[Master Key] -->|Derives| B(File Encryption Key)
    A -->|Encrypts| C(Metadata Encryption Key)
    B -->|Encrypts| D[File Content]
    C -->|Encrypts| E[File Metadata]
    A -->|Securely Stored| F{User's Wallet}

Security Measures

Verify data integrity without revealing content.

Secure account access.

Identify and address vulnerabilities.

Incentivize discovery of security issues.

No single point of trust in the system.

Encryption Process

from cryptography.hazmat.primitives.ciphers.aead import AESGCM
import os

def encrypt_file(file_path, encryption_key):
    # Generate a random 96-bit IV
    iv = os.urandom(12)
    
    # Create an AES-GCM cipher instance
    aesgcm = AESGCM(encryption_key)
    
    with open(file_path, 'rb') as file:
        plaintext = file.read()
    
    # Encrypt the file content
    ciphertext = aesgcm.encrypt(iv, plaintext, None)
    
    # Prepend the IV to the ciphertext
    encrypted_data = iv + ciphertext
    
    return encrypted_data

# Usage
file_path = '/path/to/sensitive_document.pdf'
encryption_key = AESGCM.generate_key(bit_length=256)
encrypted_file = encrypt_file(file_path, encryption_key)

# The encrypted_file can now be safely split into shards and distributed

By implementing these core concepts, DÆTA provides a robust, secure and efficient decentralized storage solution that addresses the limitations of traditional centralized systems while leveraging the power of distributed networks.

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Last updated 7 months ago