ARAD.ID | Blockchain Based Identity

Title Slide:

  • Title: ARAD.ID: Futuristic Digital Identity Management
  • Subtitle: Managing Your Digital Footprint with Style
  • Image: Sleek app screen design showcasing futuristic elements

Slide 1: Introduction

  • Introduce ARAD.ID and its purpose: Managing digital identity, tracking digital trail, and accessing cybersecurity features.
  • Highlight the importance of controlling digital footprints in today’s interconnected world.

Slide 2: User Interface Overview

  • Display the sleek and futuristic design of the app screen.
  • Mention the minimalist approach for better user experience.
  • Emphasize intuitive navigation elements for easy usage.

Slide 3: Digital Identity Management

  • Explain how users can manage their digital identities within the app.
  • Showcase features like updating personal information, managing connected accounts, and controlling privacy settings.

Slide 4: Tracking Digital Trail

  • Demonstrate how users can track their digital activities and interactions.
  • Highlight features such as viewing browsing history, monitoring online transactions, and tracking social media interactions.

Slide 5: Cybersecurity Features

  • Present the cybersecurity measures integrated into ARAD.ID.
  • Showcase features like real-time threat detection, password management, and secure authentication methods.

Slide 6: Benefits of ARAD.ID

  • Summarize the benefits of using ARAD.ID for digital footprint management.
  • Highlight advantages such as enhanced privacy, improved security, and simplified identity management.

Slide 7: Future Enhancements

  • Discuss potential future enhancements and updates for ARAD.ID.
  • Mention features like AI-driven insights, biometric authentication, and expanded integrations with other platforms.

Slide 8: Conclusion

  • Conclude by emphasizing the importance of managing digital footprints.
  • Encourage users to embrace ARAD.ID for a more secure and controlled online presence.

Slide 9: Q&A

  • Open the floor for questions from the audience.

Remember to keep the slides visually appealing with relevant imagery and minimal text. Use bullet points and visuals to convey information effectively.

1 Like

1. Overview

Objective: Develop a secure, privacy-preserving digital ID system using ZKPs to enable users to authenticate without revealing personal information.

2. Key Components

  • Digital Identity Creation: Using cryptographic key pairs.
  • Zero-Knowledge Proofs (ZKPs): Implementing ZKPs for private attribute verification.
  • Decentralized Storage: Utilizing blockchain for storing identity proofs and public keys.

3. Open-Source Tools and Technologies

  • Cryptographic Libraries:
    • Libsnark: A C++ library for zk-SNARKs.
    • Circom and SnarkJS: Tools for creating zk-SNARK circuits and verifying them.
    • Bulletproofs: For non-interactive range proofs and confidential transactions.
  • Blockchain Platforms:
    • Ethereum: For decentralized identity storage and smart contracts.
    • Hyperledger Indy: For identity management and decentralized verifiable credentials.
  • Identity Verification:
    • Hyperledger Aries: For secure and interoperable identity solutions.
    • Sovrin: An open-source, decentralized identity network.

4. Detailed Method

Step 1: Identity Creation and Registration

  1. Generate Key Pairs:

    • Use a cryptographic library like OpenSSL or a language-specific library (e.g., Python’s cryptography library) to generate a public-private key pair.
    from cryptography.hazmat.primitives.asymmetric import rsa
    from cryptography.hazmat.primitives import serialization
    
    private_key = rsa.generate_private_key(
        public_exponent=65537,
        key_size=2048,
    )
    public_key = private_key.public_key()
    
    pem = private_key.private_bytes(
        encoding=serialization.Encoding.PEM,
        format=serialization.PrivateFormat.TraditionalOpenSSL,
        encryption_algorithm=serialization.NoEncryption()
    )
    with open('private_key.pem', 'wb') as f:
        f.write(pem)
    
    pem = public_key.public_bytes(
        encoding=serialization.Encoding.PEM,
        format=serialization.PublicFormat.SubjectPublicKeyInfo
    )
    with open('public_key.pem', 'wb') as f:
        f.write(pem)
    
  2. Identity Verification:

    • Submit documents to an Identity Provider (IDP) for verification.
    • Use Hyperledger Aries to manage this process and generate verifiable credentials.
    • Store the public key and verified credentials on Hyperledger Indy or Ethereum.

Step 2: Implementing Zero-Knowledge Proofs

  1. Create ZKP Circuits:

    • Use Circom to create circuits for your ZKPs.
    • Write custom circuits for verifying age, residency, etc.
    // Example of a Circom circuit for age verification
    template AgeVerification() {
        signal input age;
        signal input min_age;
        signal output valid;
    
        valid <== age >= min_age;
    }
    
  2. Compile and Generate Proofs:

    • Compile the circuit using circom and generate proof and verification keys.
    circom age_verification.circom --r1cs --wasm --sym
    snarkjs setup
    snarkjs generatewitness
    snarkjs prove
    snarkjs verify
    
  3. Verify Proofs:

    • Use SnarkJS to verify proofs within your application.
    const snarkjs = require('snarkjs');
    
    const vkey = JSON.parse(fs.readFileSync("verification_key.json"));
    const proof = JSON.parse(fs.readFileSync("proof.json"));
    
    const res = await snarkjs.groth16.verify(vkey, publicSignals, proof);
    if (res === true) {
        console.log("Proof is valid");
    } else {
        console.log("Proof is invalid");
    }
    

Step 3: Authentication Process

  1. Request Proof:
    • Service requests proof of specific attributes from the user.
  2. Generate Proof:
    • User generates a ZKP using their private key.
  3. Submit Proof:
    • User submits the proof to the service provider.
  4. Verify Proof:
    • Service provider verifies the ZKP using the user’s public key stored on the blockchain.

Step 4: User Interface

  • Develop a user-friendly interface for managing digital IDs and generating proofs.
  • Use frameworks like React or Vue.js for the frontend, ensuring seamless integration with backend ZKP generation and verification processes.

Step 5: Security and Privacy

  • Data Encryption: Ensure all data stored and transmitted is encrypted.
  • Key Management: Implement secure storage for private keys using hardware security modules (HSMs) or secure enclaves.
  • Regular Audits: Conduct periodic security audits to ensure the system’s integrity.

Conclusion

By leveraging open-source tools like Libsnark, Circom, SnarkJS, Hyperledger Indy, and Hyperledger Aries, you can build a robust digital ID system using ZKPs. This system enhances privacy, security, and user control over personal data, providing a modern alternative to traditional identity verification methods.