L8P8 Trust Loops for Passwordless Device Authentication
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Solution Overview
Problem
Current password and identity verification methods for remote access are time-consuming and inefficient, particularly when working from home, and they do not provide adequate security against unauthorized access.
Innovation Solution
The implementation of Know Your Customer (KYC) protocols to establish a Global Digital Identity (GDI) using the L8P8 software, which creates a unique digital identifier that eliminates the need for passwords and multiple verifications by establishing trust loops between devices, utilizing a combination of hardware and software components, including mobile devices, servers, and blockchain databases, to verify user identities securely.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Reliability
If password and identity verification methods are used for remote access, then security against unauthorized access is provided, but the login process becomes time-consuming and inefficient
Solution Approach 1:
The system performs identity verification in advance by establishing trust loops between devices during initial setup. The L8P8 software pre-associates trusted devices with user accounts, creating a secure device graph that enables automatic verification without requiring password entry during subsequent logins. This preliminary action resolves the contradiction by maintaining security while eliminating time-consuming verification steps.
Solution Approach 2:
The system creates digital copies of identity verification through device fingerprints and cryptographic signatures. Instead of requiring users to input passwords, the system uses cryptographic copies of device identities to verify authenticity. This copying mechanism maintains security assurance while dramatically reducing login time by replacing manual password entry with automated cryptographic verification.
2Ease of operation
If passwords are stored on devices for verification, then login convenience is improved, but security risk from unauthorized access increases
Solution Approach 1:
The system extracts the password storage function entirely from the device. Instead of storing passwords locally, the L8P8 software uses a decentralized identifier (DID) system where only cryptographic public keys are stored on devices. The actual identity verification occurs through cryptographic proofs generated by the L8P8 server, removing the security vulnerability of stored passwords while maintaining login convenience through automated verification.
Solution Approach 2:
The system replaces the mechanical password storage and retrieval mechanism with a cryptographic verification system. Instead of storing and retrieving passwords through traditional file systems and authentication databases, the system uses blockchain-based decentralized identifiers and cryptographic signatures. This substitution eliminates the security risk of password storage while preserving ease of operation through automated cryptographic authentication.
3Reliability
If multiple verification methods are implemented, then security is enhanced, but device complexity and user burden increase
Solution Approach 1:
The system merges multiple verification methods into a unified trust loop mechanism. Instead of implementing separate authentication systems for different scenarios, the L8P8 software creates a comprehensive device graph that integrates device fingerprints, cryptographic signatures, and trust relationships into a single verification framework. This merging reduces device complexity by providing a consistent verification approach across all authentication scenarios while maintaining enhanced security through the cumulative effect of multiple verification factors.
Data Source
AI summary
A method and system of establishing trust between computing devices is described. The method includes downloading additional computer-readable instructions from a server computing device; receiving a name input value, an address input value and an email address from a user of the mobile computing device; receiving a verification message from the server computing device; communicating a confirmation verification message to the server computing device; receiving a code from the server computing device; communicating the received code to the mobile computing device for secondary verification; capturing global positioning system (GPS) measurements and/or parameters from the GPS receiver and/or communicate the captured GPS measurements and/or parameters to the server computing device; and capturing geolocation measurements and/or parameters from one or more wireless cellular towers and communicate the geolocation measurements and/or parameters to the server computing device.