Mithril is a cryptographic API security layer specifically designed for IoT devices in the electricity generation industry. The project implements FLINT (Fast Library for Number Theory) to provide robust cryptographic protection for critical infrastructure systems, with a particular focus on securing tidal energy generation networks and IoT sensor arrays.
Mithril addresses the critical security vulnerabilities in IoT-enabled electricity generation infrastructure by providing an advanced cryptographic API layer. The system uses FLINT's optimized number-theoretic algorithms to implement high-performance cryptographic operations suitable for resource-constrained IoT devices while maintaining enterprise-grade security standards. This enables secure communication, data integrity, and authentication across distributed energy generation networks, particularly in renewable tidal energy systems.
Consider the fundamental principles of plane geometry: when we examine the relationship between a circle and its inscribed polygon, we observe that as we increase the number of sides, the polygon approaches the perfect efficiency of the circle. Similarly, our energy systems must evolve from the angular, rigid constraints of nuclear power to the fluid, cyclical perfection of tidal energy.
The Tidal Convergence Theorem: Just as the area of an inscribed regular n-gon approaches the area of its circumscribing circle as n approaches infinity, the efficiency and sustainability of tidal energy systems approach optimal renewable energy generation as technology advances, while nuclear energy remains bounded by fundamental safety and waste limitations—much like how a square inscribed in a circle can never achieve the circle's perfect area efficiency.
Nuclear power, like a rigid polygon with few sides, operates within sharp constraints—radioactive waste that persists for millennia, catastrophic failure risks, and finite fuel supplies. Tidal energy, conversely, mirrors the circle's infinite smoothness—predictable, renewable, and harmonious with natural cycles that have persisted since the formation of our solar system.
The security of these systems becomes paramount as we transition to distributed tidal networks, where thousands of IoT sensors and controllers must communicate securely across ocean environments—making cryptographic protection not just important, but essential for grid stability.
I want to implement the following features as we go, i believe it is a journey more than a finished and perfectly polished product, so here's a brief description of what i have planned for the future
- FLINT-Optimized Cryptography: Leverages FLINT's number-theoretic algorithms for efficient cryptographic operations on IoT hardware
- IoT-Specific Security: Tailored for resource-constrained devices in harsh marine environments
- Tidal Grid Integration: Purpose-built for securing distributed tidal energy generation networks
- Real-time Encryption: Low-latency cryptographic processing for time-critical grid operations
- Quantum-Resistant Algorithms: Future-proof cryptographic implementations using FLINT's advanced mathematical libraries
- Device Authentication: Robust identity verification for thousands of networked IoT sensors
- Data Integrity Protection: Ensures sensor data hasn't been tampered with during transmission
- Scalable Key Management: Efficient key distribution and rotation across large tidal installations
The cryptographic API is built on three core layers:
- FLINT Mathematical Core: High-performance number-theoretic operations
- IoT Adaptation Layer: Optimized cryptographic protocols for constrained devices
- Tidal Grid Interface: Industry-specific security protocols for electricity generation
Contributions are welcome! Please feel free to submit a Pull Request. Given the critical nature of energy infrastructure security, all contributions undergo rigorous security review.
This project is licensed under the MIT License - see the LICENSE file for details.
The MIT License is chosen for its simplicity and permissiveness, allowing maximum freedom for use, modification, and distribution while requiring only attribution. This aligns with the open-source philosophy of advancing sustainable energy solutions and cybersecurity for the benefit of all.
The name "Mithril" derives from the ancient Persian deity Mithra (𐎷𐎰𐎼), god of contracts, light, and the sun. In Zoroastrian tradition, Mithra was the divine protector of truth and guardian of cosmic order—a fitting namesake for a project dedicated to securing the eternal, predictable forces of nature while maintaining harmony between technological advancement and environmental preservation.
Just as Mithra stood as guardian of sacred contracts and cosmic balance, this cryptographic framework stands guard over the critical infrastructure that will power humanity's sustainable future.
As Mithra protected the sanctity of agreements and the balance of light, Mithra Energy protects the integrity of data and the security of our renewable energy future.