The internet is down. You're still communicating.
Zero network. Zero carrier. Zero trace.
"Your data speaks. Even when you're silent."
TLS protects your data. Signal encrypts your messages. Blockchain secures your transactions.
But all of them reveal that you're communicating, when, how much, and with whom.
ASEMANTIX doesn't protect your data. It makes them invisible.
Each patent addresses a critical piece of the puzzle. Together, they form an impenetrable fortress.
The Core Protocol — Where Noise Becomes Truth
Generation of cryptographic fragments passing NIST SP 800-22 tests. Local validation via strict equality. Zero transmitted metadata.
The only protocol where transmitted data is mathematically indistinguishable from random noise.
Adaptive Transport — 25% Faster, Always Invisible
Multi-path coordination in constant time. Orchestration decisions with full ex post audit. EVOL windows for temporal aggregation.
-25% P99 latency with constant-time decisions and complete cryptographic audit.
Resynchronization — Never Lose the Thread
Resynchronization after disconnection via short anchors (≥128 bits). Bounded local search. No transmitted counters.
Resynchronization after any disconnection via short anchors — no transmitted counters.
History Chaining — Blockchain Without Blockchain
Local cryptographic accumulator. Anti-replay and anti-rollback 100% offline. No distributed infrastructure required.
Blockchain guarantees (anti-replay, anti-rollback) 100% offline — zero infrastructure.
Polymorphic Network — Chameleon Infrastructure
Self-organizing mesh. Routing without revealing topology. Ephemeral routes, self-healing, censorship resistance.
Self-organizing polymorphic routing where even network topology is invisible.
Access Control — Your Data, Your Rules, Forever
Self-enforcing containers. Access policies cryptographically bound to data. No third-party servers.
Self-sovereign data with cryptographically enforced access policies — no trusted third party.
Anomaly Detection — Finding Hidden Metadata in Noise
Asemantic detection on fragment streams. NIST + χ² + Kolmogorov-Smirnov test portfolio. Benjamini-Hochberg FDR control. Constant time.
Detect covert channels in any data stream — keyless, constant time, with FDR guarantees.
Thermodynamic Time — The Clock That Doesn't Exist
Synchronization without timestamps via energy-based time (τ = E/P). Anti-replay via monotonicity. EVOL window integration.
Clockless synchronization — time flows at the rate of energy, not seconds.
Working Python code. Test that fragments pass NIST randomness tests.
# ASEMANTIX Protocol - Proof of Concept from asemantix import AsemantixProtocol, SemanticState import secrets # Initialize with shared secret master_key = secrets.token_bytes(32) protocol = AsemantixProtocol(master_key) # Create semantic state (your message) state = SemanticState.from_string("CONFIDENTIAL: Launch at midnight", index=0) # Generate asemantic fragment fragment = protocol.generate_fragment(state) print(f"Fragment: {fragment.hex()}") # Output: 7a3f8c2e... (looks like random noise) # Validate locally (no network!) is_valid = protocol.validate_fragment(fragment, state) # Returns: True ✓
Test the public PoC, read the documentation
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