ZOSCII — Zero Overhead Secure Code Information Interchange. A paradigm shift in data security that achieves perfect protection through address-based indirection rather than encryption.
Locks data behind mathematical complexity. The data is there — protected by computational hardness that quantum computers will eventually overcome.
Describes partially how data can be created. No actual data is locked up or transmitted — the message cannot exist without the ROM, and the ROM reveals nothing.
Even though ZOSCII by itself is 100% secure, it can still leave fingerprints — not fingerprints that reveal the message, but structural signals. For example, if all your messages begin with { or [, a persistent observer could deduce which ROM addresses correspond to those characters.
UNSIGNAL Protocol completely removes any signals. It adds randomised address offsets, random-length random prefixes, and random-length random suffixes. The result: “Hello” encoded repeatedly is no longer 5 predictable addresses — it is a random blob of addresses at a random offset within a random file. Indistinguishable from noise. Every time.
* Why the asterisk? You can have the most secure car in the world, but if you leave your keys in the ignition with the door open at the supermarket, it could be stolen. The same applies to ZOSCII — if you misuse it, security can be compromised. Read more →
Transforming security across industries.
| Sector | Application | Key Property |
|---|---|---|
| Automotive | Relay-attack proof key fob security | Non-deterministic, non-replayable codes |
| Blockchain / Audit | Tamperproof ledgers and document integrity | ~10152,900 combinations per block |
| IoT Devices | Zero-config secure mesh networking | Wrong devices see noise and ignore |
| Whistleblower | Source protection with perfect deniability | Cannot prove communication occurred |
| Enterprise | Secure B2B messaging, API key management | Zero knowledge at server, no key storage |
| Government / Defence | National security communications | Mathematical proof, immune to all known quantum attacks |
| Personal Privacy | Individual communications and storage | No complexity, no overhead, works on any hardware |
ZOSCII security applied to specific industry problems.
FREE Commercial Product
Information-theoretically data concealment and secure communications platform built on ZOSCII and related protocols. Zero server knowledge, quantum-proof, harvest-proof by design.
View Details →Commandline tools (zdecode, zdelete, zdeny, zencode, zstrength) for Windows, Linux, OSX and Amiga.
GitHub (MIT Licensed) →Commandline tools (ucreate, udecode, uencode, ujoin, usplit, uverify) for Windows, Linux, OSX and Amiga.
GitHub (UNINTELLIGENCE Licensed) →Lightweight message broker for async B2B/B2C integration. Guaranteed delivery, zero dependencies, file-system durability. Quantum-proof when used with ZOSCII encoding.
View Demo & Details →Absolute tamperproof integrity for any data. Quantum-resistant, combinatorially secure (~10152,900 per block), fully verifiable — ideal for ITS payloads.
View Demo & Details →Quantum-proof web radio and music distribution software built on ZOSCII MQ.
Listen to the Live Demo
Because trumpets are louder than whistles. A whistleblower platform with perfect deniability and zero evidence of communication.
View Live System →
Products for everyone.
ZOSCII related merch including Axel the Axolotl from RedBubble.
Buy on RedBubble →Tools for readers, encoders, and communicators.
Eliminate relay attacks with non-deterministic encoding. 10600+ combinations per code makes relay and replay attacks impossible.
View Demo & Details →Crack this encoded file and win 10 billion ZOSCII tokens. 10 BILLION ZOSCII COIN tokens are stored at wallet address 0x847F4299e2006dDFA9B9ADb0De064cbf6d639503. The encoded file contains the private wallet key.
Even critics have called ZOSCII “snake-oil” — but can they prove it?
Take the ChallengeStart here. These documents establish what ZOSCII is, why it works, and how to prove it.
The primary specification. Covers the encoding model, the ROM, address indirection, the I(M;A)=0 proof, comparison with OTP, and the full property set. The definitive starting point for any reader.
ZOSCII-Whitepaper.md →Six operational modes: Deniability, Noise Communication, Zero-Config IoT, Automatic Key Rotation, Filtered Access, and Signature Mode — each with security properties, key distribution model, and concrete use cases. Includes combined-mode recipes.
ZOSCII-Modes.md →Formal proof that the ZOSCII primitive achieves I(M;A)=0 under blind selection. Covers platform invariance, minimal TCB, the position channel, and why UNSIGNAL closes structural leakage. The definitive mathematical foundation of all ZOSCII protocols.
zoscii-unsignal-zeromutualinformation.md →Quantum‑proof, opaque session/attestation tokens. A JWT analogue for ZOSCII: an issuer attests a user to a relying party, but unlike JWT the token is information‑theoretically opaque and its verification structure is concealed. Supports shared/private claims, double‑encoded issuer data, and challenge‑response relay prevention.
ZWT.md →
Formal information-theoretic proof that ZOSCII achieves perfect secrecy. Derives I(M;A)=0 from first principles, compares the proof structure to the One-Time Pad, and enumerates ZOSCII’s architectural advantages over OTP.
mathematical-proof.md →Collected formal security proofs for the ZOSCII family — covering information-theoretic bounds, combinatorial security guarantees, and protocol-level properties across UNSIGNAL, PENTAGONE, and ZTB.
security-proofs.md →Legal analysis confirming ZOSCII is patent-clear. Covers expired book-cipher prior art, 40+ years of video-game prior art for random instance selection, Alice Corp. v. CLS Bank (2014), and why unpatentability is a strategic strength rather than a weakness.
patentability.md →Statistical demonstrations, intelligence-agency neutralisation analysis, and attack-surface walkthroughs.
Step-by-step simulation of an intelligence analyst’s attempt to break an UNSIGNAL intercept: statistical analysis, coordinate-system confusion, traffic analysis, reverse engineering, known-plaintext, key recovery, the verification problem, and combinatorial exhaustion. Each step concludes: nothing here.
Cryptanalysis_Walkthrough.md →Twelve concrete test cases using the ENT randomness tool: five identical bytes, a JWT, Gone With The Wind, a ZIP, a JPEG, a 4.3MB MP3, an empty file, pure zeros, pure 0xFF, and a 0–255 ramp. Shows entropy, chi-square, mean, and serial correlation before and after ZOSCII/UNSIGNAL encoding.
Demonstration (ent only).txt →Maps UNSIGNAL’s properties against real-world surveillance programmes: TEMPORA, UPSTREAM, PRISM, XKeyscore, ECHELON, Deep Packet Inspection, cognitive electronic warfare, SORM-3 (Russia), the Great Firewall (China), and GhostNet. Each tactic matched to a specific UNSIGNAL countermeasure.
Unsignal_Intelligence_Neutralisation.md →Systematic walkthrough of all 13 classical attack vectors — frequency analysis, known-plaintext, chosen-plaintext, side-channel, quantum, and more — with the precise reason each causal chain fails against ZOSCII. Concludes with the concept of epistemic closure.
Finding_Unknown_Causation… →
Each protocol builds on the ZOSCII core. They can be layered: ZOSCII → UNSIGNAL → PENTAGONE → TEMPURA.
Advanced ZOSCII implementation adding randomised ROM offsets and variable prefix/suffix padding. Identical inputs never produce identical outputs. Encoded files are statistically indistinguishable from true random noise. The base layer for most ZOSCII communications.
unsignal-protocol.md →A zero-knowledge, quantum-proof digital signature scheme. A ROM encoded using itself produces a self-signature verifiable only by the holder of the original ROM. Use cases: BYOK licensing, firmware tamper detection, secure boot, identity anchoring. No asymmetric mathematics required.
signature-permutation… →3-of-5 combinatorial threshold splitting. Distributes an UNSIGNAL-encoded payload across 5 shares using the C(5,3)=10 pattern table. Any 3 shares reconstruct the full payload — no polynomial arithmetic, no Shamir, no finite field mathematics. Pure pigeonhole principle.
pentagone.md →Lightweight bootstrap protocol using a dynamically generated 240-byte microROM. Designed for resource-constrained environments, initial key exchange, and situations where a full 64KB ROM cannot yet be exchanged. Quantum-proof from the first byte.
microZOSCII.md →Fault-tolerant web application delivery over plain HTTP. Combines UNSIGNAL encoding with PENTAGONE 3-of-5 splitting across 5 servers. The ROM never leaves the client. Up to 2 servers can be offline or compromised with no loss of security or availability.
tempura.md →ZOSCII plus an Ouroboros XOR chain — a circular dependency where the last byte XORs back to the first. Adds transmission-layer obfuscation on top of I(M;A)=0. Satisfies checkbox-encryption requirements while remaining provably simple. Runs on hardware from a 1971 Intel 4004 upward.
brainless.md →
A trust establishment mechanism using 3 independent Certificate Authorities as one-time bootstrap facilitators. Triple-encodes session microROMs; CAs are permanently excluded from the operating ROM once the handshake completes. No ongoing third-party dependency. No ITAR implications.
noeyes.md →Specifies how to derive a microZOSCII ROM directly from 1–4 Diffie-Hellman shared secrets. The DH output is hex-encoded to produce the microROM — no further processing. A computational bootstrap for when out-of-band key exchange is impractical. Draft v0.1.
dh-microZOSCII-key-exchange.md →Theoretical extension to UNSIGNAL introducing per-packet ROM window rotation across ROMs up to 16MB (256 × 64KB pages). Massively increases combinatorial space for long sessions. Currently draft — not recommended for implementation while UNSIGNAL already achieves I(M;A)=0.
superZOSCII.md →
Higher-level protocols built directly on the ZOSCII security model.
Summary of the ZOSCII implementation landscape: cross-platform tools (C Windows/Linux/Amiga, Rust, Go, Python), Amstrad CPC, Commodore 64, Commodore VIC 20, Intel 4004, CUDA.
implementations.md →Security based on combinatorial impossibility (~10152,900) rather than hash computation. Quantum-proof by design.
Full technical specification: Genesis ROM anchor, Rolling ROM chain-of-custody, ZOSCII pointer encoding for block linking, branch/trunk scalability model, X1/X2 extended security modes, and a comparison with traditional hash-based blockchains.
ZTB-Whitepaper.html →Developer reference for the six C tools: ztbcreate, ztbaddblock, ztbaddbranch, ztbfetch, ztbverify, and ztbcheckpoint. Covers file formats, Rolling ROM construction algorithm, build instructions, and worked example workflows.
Plain-language guide for non-developers. Explains what each tool does and when to use it, custom block IDs, when to use X1/X2 mode, checkpointing for archival, and a complete real-world accounting workflow from genesis to year-end checkpoint.
ZTB-UserGuide.html →This addendum details the consensus and security model for the ZOSCII Tamperproof Blockchain (ZTB).
ZTB-Whitepaper-Addendum.html →
The ZOSCII Foundation establishes certification standards for information-theoretic security across critical infrastructure, defense, aerospace, and nuclear systems. Unlike computational security, ZOSCII provides mathematically provable protection that remains secure even against quantum computers.
Founding Member Program — Invitation-only. Validator and Implementer tracks. Complimentary membership during founding period. Foundation Director maintains sole authority over all standards — mathematical integrity over political pressure.
ZOSCII Foundation →