RFC-2026-SECURE v1.4.0

.secure Container
Binary Specification

The architectural standard for zero-knowledge, tamper-evident cryptographic containers engineered by Coralgenz Global.

Container Anatomy

Byte-Level Memory Layout

Deterministic, zero-trust binary framing protocol specifying each header block offset.

0x0000 - 0x0008 Magic Bytes 9 Bytes (SECURE_V1)
0x0009 Version 1 Byte (0x01)
0x000A KDF ID 1 Byte (PBKDF2)
0x000B - 0x000E Work Iterations 4 Bytes (2,000,000)
0x000F - 0x002E CSPRNG Salt 32 Bytes Salt
0x002F - 0x003A GCM Nonce / IV 12 Bytes (96-bit)
0x003B - 0x004A GCM Auth Tag 16 Bytes (128-bit)
0x004B - 0x006A INTEGRITY_HASH 32 Bytes SHA-256
0x006B - EOF Ciphertext Payload N Bytes (AES-256-GCM)
Field 01

Magic Header Signature

The file begins with the mandatory ASCII sequence SECURE_V1. Any parser encountering mismatched magic bytes immediately halts execution to prevent buffer overflow attacks or format corruption.

Field 02

Standardized 16-Layer Cryptographic Pipeline (RFC & NIST Standard — 4 Defense Tiers)

Executes a 16-layer defense pipeline grounded in established IETF RFC and NIST cryptographic standards across 4 operational tiers:

Tier 1 (Entropy Pre-Conditioning & 512KB Memory Wall — Layers 1–3): Layer 1 NIST SP 800-132 Unicode Pre-Conditioning & Entropy Normalization (NFKC), Layer 2 RFC 5869 / NIST SP 800-56C Context Domain Separation Tag & Multi-Key HMAC-SHA512 Pre-Whitening (Kerckhoffs-compliant context binding), Layer 3 Sequential Memory-Hard State Access Matrix (512 KB / 8,192 blocks × 64B) enforcing hardware cache pressure to penalize ASIC/GPU parallel brute-force clusters.

Tier 2 (Compute Wall & Avalanche Amplification — Layers 4–6): Layer 4 RFC 8018 / PKCS #5 Deep PBKDF2-HMAC-SHA256 Stretch Wall (2,000,000 Rounds), Layer 5 RFC 5869 Dual-Path HKDF-Extract & Expand Avalanche Loop with Inverted-Salt Bitwise Coupling, Layer 6 NIST FIPS 197 Rijndael S-Box Byte Substitution Matrix Diffusion & Bit-Reversal Scramble.

Tier 3 (Multi-Domain Cryptographic Entanglement — Layers 7–9): Layer 7 RFC 2104 Multi-Domain HMAC-SHA512 Secondary Non-Linear Feedback Mesh, Layer 8 Post-Quantum Lattice Synthesis Polynomial Diffusion ($GF(2^8)$ Matrix Entanglement), Layer 9 NIST SP 800-90A Hardware CSPRNG Nonce Fusion & Context-Aware Domain Lock.

Tier 4 (Authenticated Framing, Galois AEAD & Memory Zeroization — Layers 10–16): Layer 10 NIST SP 800-38D Native WebCrypto AES-256-GCM Framing with 128-bit Galois Authentication Tag, Layer 11 RFC-2026-SECURE Binary Container Packaging with SECURE_V1 Magic Signature, Layer 12 Galois AEAD Additional Authenticated Data ($GF(2^{128})$ GMAC Header Binding), Layer 13 FIPS 180-4 SHA-256 Payload Integrity Seal Pre/Post Digest Verification, Layer 14 Client-Side Hardware Web Worker Thread Offloading with 60fps UI Protection, Layer 15 Progressive Exponential Time-Throttling & Anti-Brute-Force Lockout Defense, Layer 16 Immediate Ephemeral Volatile RAM Scrubbing & Memory Zeroization (.fill(0) & Object URL Revocation).

Field 03

AES-256-GCM Framing & Tag

Encodes the 96-bit Initialization Vector (IV) and the 128-bit Galois Authentication Tag. Any bit flip in the file results in an instant decryption rejection.

Field 04

SHA-256 Payload Checksum & Galois GMAC Tag

Provides defense-in-depth data verification. Primary mathematical authenticity is enforced by the 128-bit Galois AEAD GMAC authentication tag ($GF(2^{128})$), while the hardcoded SHA-256 digest acts as an end-to-end payload fingerprint verified upon memory decoding.

Field 05

RFC 4648 Binary Packaging & HTML Carrier

Packages the raw authenticated binary container using RFC 4648 encoding inside a universal .secure.html carrier. Runs autonomously in any standard browser (Mac, Windows, iOS, Android) via native WebCrypto without server roundtrips.

Field 06

Filename & Format Consistency Guard

Enforces format consistency to prevent accidental file tampering or format mismatches. Operates as a client runtime guardrail alongside mathematical Galois AEAD tamper rejection.

Field 07

Ephemeral Memory Enclave & Zeroization

Isolates decrypted payloads in volatile browser RAM and enforces strict zeroization (.fill(0)), immediate URL.revokeObjectURL disposal, and strict Content-Security-Policy (default-src 'none') to prevent data exfiltration.

Interactive Specification Tool

.secure Binary Header Inspector

Inspect how each byte offset is mapped within the container architecture.

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Platform Compatibility

Universal Client Runtime Matrix

Hardware-accelerated zero-knowledge decryption across all modern operating systems.

Operating Environment Engine Implementation Acceleration Mode Memory Wiping Hook
Web Browsers (Chrome, Safari, Edge, Firefox) Native WebCrypto API (SubtleCrypto) Hardware AES-NI via Browser beforeunload + pagehide + zeroizeMemory()
macOS (Apple Silicon & Intel) Native Vault Swift / WebKit Runtime Apple CryptoKit Hardware Engine Secure Enclave + Virtual RAM Scrubbing
Windows 11 / 10 Enterprise Windows CNG / WebCrypto Runtime Intel / AMD AES-NI Hardware VirtualProtect zeroizeMemory()
Linux / Air-Gapped Workstations Native POSIX OpenSSL / Web Engine Kernel Crypto API / AES-NI explicit_bzero() Memory Flush
iOS & Android Mobile Safari Mobile / Chromium WebView ARMv8-A Cryptography Extensions App Suspension RAM Zeroization