The Sealed Positional Roman (SPR) encryption scheme is a novel cryptographic approach that combines positional encoding with Roman numeral transformations to achieve quantum-resistant encryption properties.
- π Read the Full Documentation - Comprehensive technical documentation
- π¬ View Analysis Reports - Security assessments and validation
- β‘ Try the Implementation - Testing scripts and implementations
- π GitHub Pages Site - Interactive white paper
Core Documentation (docs/)
- Abstract - Executive summary and key findings
- Introduction - Background and motivation
- Algorithm Description - Technical specification
- Cryptographic Features - Security properties
- Implementation Guide - Complete implementation reference
- Performance Benchmarks - Speed and efficiency metrics
- Optimization Analysis - Performance optimizations
- C vs Python Comparison - Implementation comparisons
- Security Analysis - Comprehensive security evaluation
- Cryptographic Tests - Validation testing
- Attack Resistance - Resistance to known attacks
- Quantum Analysis - Quantum threat assessment
- Configuration Scaling - Scalability analysis
- Grover's Algorithm Analysis - Specific quantum algorithm resistance
- Strategic Recommendations - Market positioning strategy
- Historical Case Studies - Analysis of relegated algorithms
- vs AES/ChaCha20 - Comparison with industry standards
π¬ Analysis Reports (Analysis/)
- Theory vs Practice Gap - Implementation reality check
- Missing Cryptographic Features - Feature gap analysis
- Evidence-Based Reality Assessment - Empirical validation
- Final Comprehensive Assessment - β KEY FINDING: 83.3% security test success
- Full Implementation Test Results - Complete testing outcomes
- Implementation Verification Report - Verification methodology
- Roman Symbol Remapping Analysis - Feature analysis
β‘ Implementations (Experiment/)
Scripts (Experiment/scripts/)
- test_suite.py - Basic test implementation
- quantum_resistance_evaluation.py - Quantum analysis
- security_analysis_suite.py - Security testing
- performance_benchmarks.py - Performance testing
High-Performance Implementations (Experiment/docker/)
- spr_high_performance.c - Optimized C implementation
- spr_text_encoding.c - C text encoding
- Dockerfile.spr-test - Testing environment
- Initial Implementation: 0/6 tests passing (0%)
- With Missing Features: 4/6 tests passing (66.7%)
- Full Implementation: 5/6 tests passing (83.3%) β
- Maximum Possible: 5/6 (limited by Roman numeral constraints)
- Initial Estimate: 55%
- After Gap Analysis: 25%
- Final Assessment: 70-75%
This repository was recovered from SMB network share deletion using systematic .smbdelete artifact analysis. See RECOVERY_INDEX.md for complete recovery documentation.
- Read the Documentation: Start with the Abstract and Introduction
- Explore Analysis: Review the Final Comprehensive Assessment
- Try the Code: Run the test_suite.py or explore C implementations
- View Online: Visit the GitHub Pages site for an interactive experience
- Wellington Ngari - Research direction, methodology design, and collaborative AI orchestration
- Strategic Oversight - Project scope, validation criteria, and quality standards
- Repository Management - Recovery operations, documentation synthesis, and final assessment
- Google Gemini - Original SPR algorithm design and theoretical framework
- Collaborative Development - Iterative refinement through conversation-driven development
- GitHub Copilot - Code implementation, testing framework, and empirical validation
- Comprehensive Analysis - Security testing, performance benchmarking, and reality assessment
- Systematic Analysis - Recovery from SMB deletion artifacts and comprehensive validation
This repository contains research and analysis of the SPR cryptographic scheme. All implementations and analysis are available for academic and research purposes.
Research and educational use. See individual files for specific licensing information.
Repository Status: β
Fully recovered and validated
Last Updated: March 28, 2026
Total Files: 130+ (documentation, analysis, implementations)