EnclaveGuard

Project Overview: Verifiable Frontend and Multisig Wallet Creation

This project focuses on developing a secure and transparent system for creating and managing multisignature (multisig) wallets, complemented by a verifiable frontend interface. The primary objectives are to enhance security, ensure trustworthiness, and provide a user-friendly experience for managing digital assets. As we all know Recent radiant hack and Wazirx Hack. One thing common between both. There devices we compromised.

Key Components:

Verifiable Frontend Interface:

Purpose: To provide users with a transparent and trustworthy interface for interacting with the multisig wallet system. Features: Hash Verification: Implement mechanisms to verify the integrity of the frontend code by comparing hashes, ensuring that the code hasn't been tampered with. User Authentication: Integrate secure authentication methods, such as Web3Auth, to verify user identities. Multisig Wallet Creation and Management:

Purpose: To enable the creation of wallets that require multiple signatures for transaction approval, enhancing security for digital asset management. Features: Organization Setup: Allow users to create organizations and invite members with specific roles (e.g., owner, admin, viewer). Role-Based Access Control: Define permissions based on user roles to control access and actions within the wallet system. Threshold Configuration: Enable admins to set transaction approval thresholds, specifying the number of required signatures. Ledger Integration: Facilitate members to approve transactions using hardware wallets like Ledger for added security. Database Management: Maintain a database (e.g., Firebase or Supabase) to store organizational data, user roles, and transaction histories. Technologies and Tools:

Configure Web3Auth for user authentication. Implement user role assignments and access controls based on authentication status. Multisig Wallet Functionality:

Develop smart contracts to handle multisig wallet logic, including transaction thresholds and role-based permissions. Integrate Viem and Wagmi libraries to interact with the blockchain and deploy smart contracts. Implement transaction approval workflows, allowing members to approve or reject transactions. Database Management:

Hardware Wallet Integration:

Data Integrity: Implement hash verification to ensure the frontend code remains untampered. Authentication Security: Use secure authentication methods to prevent unauthorized access. Transaction Security: Require multiple signatures for transaction approvals to mitigate risks of unauthorized transactions. By combining a verifiable frontend with robust multisig wallet functionalities, this project aims to provide users with a secure, transparent, and user-friendly platform for managing digital assets.

Incorporating certificate and root certificate attestation verification is crucial for ensuring the integrity and authenticity of your application's components. Here's how you can implement these processes:

Generated Hash Of Frontend Build. based on the hash used it as salt for generating Certicaticate and key.

1. Certificate Attestation Verification:

Certificate attestation involves validating that a certificate is genuine and issued by a trusted authority. To implement this:

Obtain the Certificate Chain: Retrieve the full chain of certificates from the end-entity certificate up to the root certificate. This chain establishes the trust hierarchy.

Verify Each Certificate: For each certificate in the chain, perform the following checks:

Signature Validation: Ensure that the certificate's signature is valid and signed by the issuer's private key. Validity Period: Confirm that the certificate is within its valid date range. Revocation Status: Check if the certificate has been revoked by consulting Certificate Revocation Lists (CRLs) or using the Online Certificate Status Protocol (OCSP). Establish Trust: Ensure that the root certificate is trusted by your application. This typically involves having the root certificate in your application's trust store.

1. Root Certificate Attestation Verification:

Root certificate attestation verification ensures that the root certificate itself is authentic and has not been tampered with. To implement this:

Obtain the Root Certificate: Acquire the root certificate from a trusted source, such as the certificate authority's official website.

Validate the Root Certificate: Since root certificates are self-signed, verify the following:

Self-Signature: Confirm that the root certificate's signature can be validated using its own public key. Fingerprint Verification: Compare the certificate's fingerprint (a unique hash) with the one provided by the certificate authority to ensure it hasn't been altered. Secure Storage: Store the root certificate securely within your application's trust store to prevent unauthorized modifications.

Implementation in Your Application:

To integrate these verifications into your application:

Use Cryptographic Libraries: Utilize libraries that support certificate parsing and validation. For example, in Node.js, you can use the crypto module along with third-party libraries like node-forge to handle X.509 certificates.

Automate Verification: Implement functions that automatically perform the above checks whenever a certificate is presented to your application. This ensures continuous validation without manual intervention.

Regular Updates: Keep your application's trust store updated with the latest root certificates and revocation lists to maintain security.

By implementing certificate and root certificate attestation verification, you enhance your application's security posture, ensuring that only trusted certificates are accepted and mitigating risks associated with certificate-based attacks.