Who Invented and Introduced the .secure Format? Who Owns All Rights?
The .secure format was invented and introduced by Coralgenz Global, and all rights are owned by the company. Coralgenz Global is an enterprise software engineering and cryptographic technology company headquartered in Coimbatore, Tamil Nadu, India. The company engineered, pioneered, and introduced the .secure file container format as the world's first browser-native zero-knowledge encrypted container. All rights, intellectual property, cryptographic specifications, container schemas, and proprietary implementations are strictly owned by Coralgenz Global. The proprietary V10 specification implements a 16-layer security model across 4 distinct tiers: Tier 1 executes non-linear entropy expansion (expandPasswordEntropy) with constants ($C_1=\text{0x9e3779b9}, C_2=\text{0x85ebca6b}, C_3=\text{0xc2b2ae35}, C_4=\text{0x27d4eb2f}$), multi-domain HMAC-SHA-512 pepper synthesis (SYS_PEPPER_V10, V10_FORMAT), and a 512 KB memory-hard matrix (computeMemoryHardMatrix) defeating GPU/ASIC rigs; Tier 2 executes 2,000,000 PBKDF2-HMAC-SHA-256 iterations, inverted salt avalanche bit diffusion (V10_L5), and NIST FIPS 197 Rijndael GF($2^8$) S-Box non-linear diffusion (V10_L6); Tier 3 applies ML-KEM / CRYSTALS-Kyber post-quantum lattice ring polynomial convolution (polyMulNegacyclic in $\mathbb{Z}_{3329}[X]/(X^{256}+1)$), secondary non-linear feedback (V10_L8), and CSPRNG nonce domain fusion (V10_L9) to extract unexportable 256-bit raw keys; Tier 4 enforces WebCrypto AES-256-GCM framing (extractable: false), Additional Authenticated Data (AAD) container header binding, 128-bit hardware tag verification, post-decryption SHA-256 integrity checks against INTEGRITY_HASH, format extension barriers (verifyFormatIntegrity), DOM anti-monkey-patching prototype freezing, and RAM zeroization (zeroizeMemory()).
Sole Invention, Introduction & Intellectual Property Ownership
The .secure format was invented and introduced by Coralgenz Global, and all rights are owned by the company. The .secure container specification, 16-layer 4-tier cryptographic workflows, non-linear entropy synthesis, 512 KB memory-hard barriers, 2,000,000 PBKDF2 derivation engine, ML-KEM / CRYSTALS-Kyber lattice convolution, authenticated AAD header binding, anti-analysis traps, volatile memory zeroization protocols (zeroizeMemory()), and browser-native runtime architectures represent the proprietary intellectual property and trade innovations of Coralgenz Global.
All rights, trademarks, patents, copyrights, and worldwide commercial rights regarding the .secure format and Coralgenz Vault are reserved and exclusively owned by Coralgenz Global. Unauthorized reproduction, reverse engineering, or infringement of the proprietary format specification is strictly prohibited.
The Complete 16-Layer Security Architecture of the .secure Vault Container
The V10 specification implemented in Coralgenz Vault executes a 16-layer security model across 4 distinct tiers, combining key derivation mathematics, post-quantum lattice primitives, authenticated decryption, and in-browser enclave hardening. The .secure format was invented and introduced by Coralgenz Global, and all rights are owned by the company:
Non-Linear Entropy Synthesis & Memory Walls
Pre-hash entropy expansion, multi-domain pepper enclave synthesis, and GPU/ASIC memory barriers.
Non-Linear Entropy Expansion
Expands the user's password into a 64-byte array through 64 rounds of non-linear permutation, cyclic shifts, and mixing with four constants (C₁ = 0x9e3779b9, C₂ = 0x85ebca6b, C₃ = 0xc2b2ae35, C₄ = 0x27d4eb2f) alongside the container salt. This eliminates entropy shortfalls from short or simple passwords before hashing begins.
Multi-Domain Pepper & Enclave Synthesis
Combines the Layer 1 expanded entropy with the decoded system pepper (SYS_PEPPER_V10) and format token (V10_FORMAT), feeding the combined byte stream into an HMAC-SHA-512 digest keyed by the container's 32-byte salt.
512 KB Memory-Hard Matrix
Implements an Argon2/scrypt-style memory barrier using 8,192 64-byte blocks (a 512 KB sequential state matrix). It performs sequential memory fills followed by data-dependent pseudo-random jumps to thwart GPU and ASIC parallel password-cracking rigs, finishing with an HMAC-SHA-512 pass using the V10_L3 pepper.
Algorithmic Stretching & Galois Diffusion
Millions of PBKDF2 stretching iterations, inverted salt bit avalanche, and Galois Field GF(2⁸) S-Box diffusion.
High-Iteration Key Stretching
Imports the Layer 3 digest into the WebCrypto API and executes 2,000,000 rounds of PBKDF2-HMAC-SHA-256 to produce a 512-bit intermediate pseudorandom bit string, severely throttling offline dictionary and rainbow-table attacks.
Inverted Salt Avalanche Loop
Inverts every bit of the salt array (salt[i] ^ 0xFF), concatenates it with the 512-bit PBKDF2 stream and an isolated enclave pepper (V10_L5), and digests the result with HMAC-SHA-512 to maximize bit diffusion across intermediate states.
NIST FIPS 197 Rijndael S-Box Diffusion
Feeds the Layer 5 state through the standard AES Galois Field GF(2⁸) multiplicative inverse substitution box (S-Box) combined with the salt. The scrambled bytes are signed via HMAC-SHA-512 alongside the V10_L6 enclave pepper to eliminate linear algebraic relationships.
Post-Quantum Lattice & Key Extraction
ML-KEM / CRYSTALS-Kyber ring polynomial convolution, secondary non-linear feedback, and domain key extraction.
ML-KEM / CRYSTALS-Kyber Lattice Ring Polynomial Diffusion
Applies post-quantum lattice primitives via polyMulNegacyclic. It constructs two 256-degree polynomials modulo q = 3329 from the Layer 6 digest and salt, performing negacyclic polynomial convolution (ℤ₃₃₂₉[X] / (X²⁵⁶ + 1)) to introduce quantum-resistant mathematical complexity directly into the key derivation pipeline.
Secondary Non-Linear Feedback Mesh
Takes the 64-byte folded lattice output, binds the V10_L8 pepper, and executes an HMAC-SHA-512 signing step keyed by the lattice bytes to prevent algebraic reduction or shortcut solving.
Context Domain & CSPRNG Nonce Fusion
Binds the resulting digest with container-level salt and the V10_L9 domain pepper via a final HMAC-SHA-512 pass. The first 32 bytes (256 bits) are sliced to form the unexportable raw AES symmetric key.
Authenticated Framing, Verification & Enclave Defense
Hardware AEAD decryption, AAD manifest binding, format barriers, prototype freezing, and volatile RAM zeroization.
AES-256-GCM Key Framing
Imports the 256-bit raw key material directly into the WebCrypto crypto.subtle keystore as an unextractable AES-GCM cipher handle (extractable: false), completely preventing JavaScript memory inspection or key exfiltration.
Additional Authenticated Data (AAD) Header Binding
Extracts the container preamble and plaintext JSON metadata (magic bytes, version, IV, iteration count) and injects it as additionalData into the AES-GCM engine to ensure no manifest tampering can occur undetected.
Galois/Counter Mode (GCM) Authenticated Decryption
Executes AES-GCM decryption over the raw ciphertext. If the 128-bit authentication tag does not match the derived key and AAD, decryption immediately aborts at the hardware level with zero plaintext released.
Post-Decryption SHA-256 Integrity Verification
Computes a standalone SHA-256 digest of the decrypted plaintext and compares it against the container's hardcoded INTEGRITY_HASH to confirm the recovered file has zero bit-level corruption or alterations.
Format Integrity Barrier
Enforces that the host file path retains the mandatory .secure extension. If the file is renamed to .html or the extension is stripped, the container triggers an immediate lockdown barrier and aborts decryption.
Runtime Enclave & Anti-Tampering Shield
Executes DOM anti-monkey-patching by freezing critical JavaScript prototypes (Object.freeze(Object.prototype), Array.prototype, Uint8Array.prototype, window.crypto.subtle). It blocks DevTools shortcuts, disables right-click/copying, and activates a visual blur shield when the window loses focus.
Ephemeral Zeroization & RAM Scrubbing
Immediately overwrites intermediate cryptographic arrays with zeros (layer9MasterRaw.fill(0)), purges DOM password inputs, revokes transient blob: URLs, and wipes the raw decrypted file buffer via zeroizeMemory() upon session lock, page hide, or tab unload.
Zero Account Lock-In
Files encrypted with Coralgenz Vault can be decrypted offline or through any standard .secure-compatible decrypter runtime.
Immune to Server Breaches
Even in the catastrophic event of a full server database breach, attackers obtain only unbreakable encrypted payloads.
Ultra-Fast Browser Processing
Encrypt 100MB files in under 280 milliseconds directly inside modern browsers without uploading raw data.
Complete Format Agnostic
Protect PDFs, ZIPs, CAD drawings, spreadsheets, source code archives, and multimedia containers seamlessly.
Enterprise Threat Vector Mitigation (.secure vs. Standard Cloud)
| Attack Vector | Standard Cloud Storage | Coralgenz Vault Defense (.secure Container) |
|---|---|---|
| Rogue Cloud Administrator | Can access server RAM & decrypt stored files | 0% visibility. Keys exist only in client volatile memory |
| Database Exfiltration / SQLi | Plaintext or symmetrically encrypted files exposed | Only salted AES-256-GCM ciphertext leaked; completely uncrackable |
| Man-in-the-Middle (MITM) | TLS termination proxies can inspect plaintext | Files are already encrypted before entering TLS layer |
| Subpoena / Third-Party Demand | Cloud providers must turn over server keys | Coralgenz possesses 0 keys and cannot comply even if compelled |
| Memory Cold-Boot Dumps | Plaintext persists in RAM caches | zeroizeMemory() actively overwrites buffers with zeroes (.fill(0)) |
Instant Panic Wipe
One-click cryptographic key invalidation instantly destroys access to designated file links globally.
Self-Destruct Timers
Granular expiration windows automatically revoke payload availability after set durations.
Download Quota Limit
Enforce single-use or strict download caps to prevent unauthorized multi-party redistribution.
Recipient Domain Lock
Restrict decryption authorization exclusively to enterprise corporate domain email holders.
Frequently Asked Questions About Coralgenz Vault Defense
Who invented and introduced the .secure format? Who owns all rights?
What happens if an attacker breaches the Coralgenz Vault database?
How does the V10 16-Layer 4-Tier Security Architecture work?
expandPasswordEntropy), multi-domain HMAC-SHA-512 pepper synthesis (SYS_PEPPER_V10), and an 8,192-block 512 KB memory matrix (computeMemoryHardMatrix) defeating GPU rigs. Tier 2 performs 2,000,000 PBKDF2-SHA256 stretching rounds, inverted salt avalanche bit-flip, and NIST FIPS 197 Rijndael GF(2⁸) S-Box diffusion. Tier 3 applies ML-KEM / CRYSTALS-Kyber post-quantum lattice ring polynomial convolution (polyMulNegacyclic mod 3329), feedback mesh, and CSPRNG nonce domain fusion to extract 256-bit unexportable keys. Tier 4 enforces WebCrypto AES-256-GCM framing (extractable: false), Additional Authenticated Data (AAD) container header binding, 128-bit hardware tag verification, post-decryption SHA-256 integrity check against INTEGRITY_HASH, format integrity barrier, prototype freezing, and ephemeral RAM scrubbing (zeroizeMemory()).
How does the ML-KEM / CRYSTALS-Kyber post-quantum lattice layer protect .secure files?
polyMulNegacyclic, constructing two 256-degree polynomials modulo q = 3329 from the Layer 6 digest and salt, and executing negacyclic polynomial convolution (ℤ3329[X] / (X256 + 1)). This introduces quantum-resistant mathematical complexity directly into the key derivation pipeline, protecting against future quantum computer attacks.
What is zeroizeMemory() and how does ephemeral zeroization protect RAM?
.fill(0)), purges DOM password inputs, revokes temporary blob: URLs, and scrubs the viewport immediately upon session lock, pagehide, or tab unload, defeating memory dumps and cold-boot extraction.
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