HyphaCrypt

HyphaCrypt

HyphaCrypt is the custom cryptographic and encoding framework developed for the Seigr Urcelial-net’s .seigr file format. Inspired by the adaptive resilience and structural integrity of hyphal networks in nature, HyphaCrypt facilitates secure, scalable, and adaptive data encoding, encryption, and integrity verification across Seigr’s decentralized network. Designed with advanced cryptographic strategies, HyphaCrypt combines senary encoding (base-6 encoding) with multi-layered hashing and adaptive salting mechanisms, ensuring data remains traceable, resilient, and decentralized across a diverse ecosystem.

With unique transformations, progressive hashing levels, dynamic salt generation, and a custom PRNG based on the Xorshift algorithm, HyphaCrypt fortifies Seigr’s decentralized storage, protecting data from unauthorized access, tampering, and reverse engineering, while ensuring traceability, flexibility, and ease of scalability for future expansion.

Purpose of HyphaCrypt

In the Seigr Urcelial-net, secure data integrity and authenticity are paramount. HyphaCrypt serves as the foundational cryptographic and encoding tool for creating, managing, and distributing .seigr files, ensuring that each file maintains its integrity and remains accessible to the network. Through its modular and nature-inspired cryptographic framework, HyphaCrypt aligns with Seigr’s mission of fostering a secure, inclusive, and transparent data system.

Key Features of HyphaCrypt

HyphaCrypt brings advanced cryptographic and encoding techniques that balance security, adaptability, and traceability, making it well-suited for Seigr’s distributed `.seigr` file format. Its features include:

• Senary Encoding: Binary data is converted to base-6, compacting data and enhancing its suitability for distributed storage. This unique encoding method provides a compact format while obscuring the data to enhance security.
• Progressive Senary Transformations: A non-linear, position-based transformation is applied to each byte in a .seigr file to further obfuscate data.
• Multi-Level Hashing with SHA-256 and SHA-512: A hierarchical hashing system enables secure data chaining at both the .seigr file level and the cluster (or seed file) level, supporting traceability and modularity.
• Dynamic Salt Generation: Unique dynamic salts, generated with a blend of UUIDs, timestamps, and entropy from a PRNG, ensure each hash operation is distinct, making it resistant to attacks and duplication.
• Xorshift-based Secure Pseudo-Random Number Generator (PRNG): Supplies random entropy and diversification for HyphaCrypt operations, ensuring robust cryptographic randomness and avoiding dependencies on external libraries.

Technical Overview

HyphaCrypt integrates cryptographic techniques and encoding transformations to create a secure and self-sustaining system within Seigr Urcelial-net. The following sections break down HyphaCrypt’s technical components and cryptographic strategies in detail, showcasing how each part contributes to the security, integrity, and adaptability of the Seigr ecosystem.

Senary Encoding and Decoding

HyphaCrypt’s unique base-6 (senary) encoding algorithm transforms binary data into a six-digit number system (0-5), making it compact and compatible with device constraints. This format also allows efficient storage within each .seigr file segment.

1. Substitution-Permutation Transformation (SPN): Each byte undergoes a position-dependent transformation involving bitwise shifts, substitutions, and encoding constants. 2. Base-6 Encoding: The transformed byte is converted to base-6, achieving both compactness and obfuscation.

Encoding Process Example:

Binary Input: [01010111]
SPN Transformation: [11101001]
Base-6 Encoded: "32"

This layered encoding ensures that even if a segment of binary data is exposed, reverse engineering is significantly challenging due to the dependency chain in transformations.

Progressive Senary Transformations

HyphaCrypt’s progressive transformations introduce non-linear dependencies between data bytes, complicating reverse engineering. By implementing an SPN (Substitution-Permutation Network) transformation and position-dependent bitwise shifts, HyphaCrypt obfuscates each byte:

• Substitution-Permutation Network (SPN): Each byte is modified with non-linear substitution and rotation, with the transformation based on the byte’s position.
• Dependency Chain: Each byte’s final value depends on the previous byte’s transformation, ensuring that any attempts at extraction or modification cascade through the dataset.

This transformation network prevents predictable encoding and aids in securely compressing `.seigr` files into Seigr Urcelial-net’s senary format.

SPN Transformation Example: - Each byte undergoes a sequence of bit rotations and substitutions based on its index, which ensures complex inter-byte dependencies.

Multi-Level Hashing System

HyphaCrypt employs a two-level hashing system to provide both individual `.seigr` file security and cluster-level integrity, enabling enhanced flexibility, scalability, and multi-dimensional data management. This structure allows for hierarchical referencing and cross-linking between file clusters.

• Primary Hashing (SHA-256): Each .seigr file generates a unique SHA-256 hash for individual data verification.
• Secondary Hashing (SHA-512): Seed clusters, containing multiple .seigr files, generate a SHA-512 hash, referencing primary hashes and creating a traceable linkage among files within a dataset. This secondary hash supports interlinked data clusters, promoting future scalability for additional data layers.

This hierarchical design makes it easy to add more data dimensions without affecting existing data chains, improving traceability and making data migration or redundancy checks manageable across Seigr Urcelial-net.

Example of Two-Level Hash Generation:

Primary Hash (SHA-256): "e3f2...9c9f"
Secondary Cluster Hash (SHA-512): "4ae7...f3b1" (Referencing multiple SHA-256 hashes)

Dynamic Salting Mechanism

To prevent predictable hashing patterns, HyphaCrypt uses a dynamic salting process that introduces significant entropy through:

• UUID and Timestamp: UUIDs and high-precision timestamps ensure that each hashing operation generates unique salts.
• Entropy from Secure PRNG: Additional entropy is provided by HyphaCrypt’s custom PRNG, fortifying the salt against potential attacks like rainbow tables and providing each hash with a unique signature.

Dynamic salting is particularly effective in securing data with a high degree of variability, enabling .seigr files to maintain security even in distributed settings.

Xorshift-Based Secure Pseudo-Random Number Generator (PRNG)

HyphaCrypt’s PRNG, based on the cryptographically robust Xorshift algorithm, supports HyphaCrypt’s encoding, hashing, and salting processes with secure random values.

• Xorshift Algorithm: Produces high-entropy random numbers without repetitive or predictable patterns.
• System-Based Seed Generation: Seeds are generated using system randomness (`urandom`), maximizing initial entropy and robustness.
• Random Output for Encoding and Hashing: The PRNG provides random values that improve the unpredictability of transformations, making HyphaCrypt resilient against targeted attacks.

PRNG Sequence Example:

Seed: 0x9a7bc1d2
Random Output: 0x57892183

Security Advantages of HyphaCrypt

HyphaCrypt is engineered for security, providing Seigr Urcelial-net with robust protections against data breaches, tampering, and unauthorized access. Key advantages include:

• Data Obfuscation and Anti-Forensics: Progressive SPN transformations and base-6 encoding obfuscate .seigr files, deterring decryption or reverse engineering.
• Tamper Detection: SHA-256 and SHA-512 hashing with dynamic salts ensures that any tampering with a `.seigr` file or its clusters is detectable, preserving data integrity.
• Enhanced Entropy and Dynamic Unpredictability: Dynamic salt generation and PRNG-backed randomness add significant entropy to each hashing operation, protecting data against cryptographic vulnerabilities such as rainbow tables or hash collisions.
• Independent Cryptographic Layer: By eliminating dependencies on external libraries for its core functions, HyphaCrypt enhances Seigr Urcelial-net’s security, making it a self-contained cryptographic ecosystem.

Applications within Seigr Urcelial-net

HyphaCrypt’s cryptographic protocols are critical to Seigr Urcelial-net, particularly for encoding, hashing, and data management within .seigr files. Its applications include:

• Encoding and Storage Efficiency: Encodes data within .seigr files in a secure, compact format that optimizes distributed storage while maintaining strong security measures.
• Secure Hash Chain Management: Ensures that each `.seigr` file links securely to previous and subsequent files in a data chain, facilitating efficient traceability and integrity.
• Adaptive Replication Strategy: Uses hashing and segment tracking to optimize replication based on access demand, dynamically adjusting replication rates across Seigr Urcelial-net to ensure high availability.
• Contributor Traceability and Logging: HyphaCrypt provides secure lineage tracking, enabling transparent and ethical management of contributor data through secure hash-based verification.

Conclusion

HyphaCrypt stands as an integral cryptographic and encoding tool within Seigr Urcelial-net, embodying the principles of resilience, transparency, and decentralized accessibility. By implementing unique cryptographic strategies—such as senary encoding, multi-level hashing, dynamic salting, and a custom Xorshift-based PRNG—HyphaCrypt enables Seigr to manage data securely while facilitating traceability, accessibility, and future scalability.

Whether a novice or an expert in cryptography, HyphaCrypt represents an innovative and robust solution, designed with ethics, resilience, and community-driven decentralization at its core. Through its comprehensive cryptographic infrastructure, HyphaCrypt positions Seigr Urcelial-net to grow as a transparent, inclusive, and secure ecosystem.