Paradigm comparison · Claim classes

Compare security systems

A single matrix compares security paradigms (not vendors) across adversary model, metric, lifespan, replay posture, and secret residue. It shows job fit, not “ENI6MA wins every cell.”

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~8 min overview · ~5 min formalContinue: Research papers

How to read the matrix

Rows are properties. Columns are security paradigms: schematic classes, not a bake-off of every product. Blue-leaning columns sit on computational hardness clocks. The gold-leaning Channel Zero column is information-theoretic authorization under a stated model: security that does not rely on computers being too slow for the emptiness claim.

Disclaimer: cells are model-scoped. Absolute-sounding Channel Zero rows assume the reference architecture and axioms. This is not “better AES.” It is job fit, which tool matches which threat.

Computational / hardnessITS authorization (model)

Comparison matrix

Accessible caption: five paradigms, seven properties: transport tokens, device possession, succinct computational proofs, PQ tunnels, and empty-channel authorization. Cryptographers: footnotes under each row; symbols in notation.

Security paradigm comparison across JWT, passkeys, ZK artifacts, PQ-TLS, and Channel Zero
Property	Bearer / JWT in TLS	WebAuthn / passkeys	Zero-knowledge (ZK-SNARK) artifact	Post-quantum TLS hybrid	Channel Zero / Rosario
Adversary model	Bounded compute (hardness)	Bounded + device possession	Bounded (proof system assumptions)	Bounded (PQ hardness calendar)	Info-theoretic on transcript (model)
Primary security metric	Hardness of forging / stealing token	Hardness + authenticator binding	Soundness / knowledge soundness	Hardness under PQ assumptions	MI / unicity (I→0; non-unicity)
Lifespan of guarantee	Expires with crypto / key / token life	Tied to device + credential lifecycle	Tied to scheme + trusted setup / CRS story	Moves with PQ algorithm agility	Holds while model assumptions hold
Ambient reusable secret?	Yes: bearer is capability	Device-bound; phishing-resistant UX	Often a reusable proof artifact risk	Session keys; still transport-scoped	No: one-shot membership work
Replay denial	TTL / rotation / server checks	Origin-bound ceremony; not a film replay	Nullifiers / session binding (varies)	Handshake freshness; not auth emptiness	τ + nonce burn (P4)
Quantum relevance	HNDL on archived TLS / tokens	Platform crypto migration	Depends on underlying hardness	Directly addresses Shor calendar	Search bounds if O empty of secret MI
Typical job	Transport + session identity	Human login without passwords	Succinct computational proofs	Future-proof the tunnel	Authorization without residue

1. Adversary model. ITS column assumes axioms P1–P4 and reference architecture. Computational columns assume stated hardness and implementation correctness.
2. Primary security metric. Mutual information and unicity language: see notation. ZK column is schematic, not every SNARK deployment.
3. Lifespan of guarantee. No column is “forever.” Clocks differ: hardness calendars versus model fidelity.
4. Ambient reusable secret?. “Ambient” means stealable lasting authority sitting in memory, logs, or wallets.
5. Replay denial. Channel Zero replay resistance is axiom P4 plus burn-before-validate in deployment.
6. Quantum relevance. See Quantum myths vs real bounds: PQ transport ≠ authorization emptiness.
7. Typical job. Job fit: pick the column for the job, not a single winner for all of cryptography.

Metric row in symbols: hardness clocks versus I(·;·) and unicity / anti-unicity.

Two jobs reminder

Transport secrecy keeps strangers’ bytes private under a hardness bargain. Authorization emptiness asks whether the public ceremony leaves secret-relevant residue. Confusing the jobs produces “PQ will fix my stolen API keys” and “Shannon replaces TLS.” Neither is the claim.

Two roads of security: computational hardness clock versus empty-channel authorization with I(X;O|C)=0 — Two roads of security · not a stronger lock
Read left-to-right: the computational road treats secrecy as a hardness clock (TLS/PKI-style). The information-theoretic road treats authorization as an empty public channel: recording the transcript does not yield the secret. Takeaway: ENI6MA argues a different job, not a stronger lock on the same road.

See also (full bargain): Today's crypto: a bet on hard math.

Where ENI6MA claims superiority

Categorical only for information-theoretic authorization versus computational possession-auth that leaves ambient reusable secrets, never “better AES,” never “wins all crypto.” Channel Zero / Rosario cells that sound absolute are model-scoped; see Claims for affirmative claim classes.

Homepage / Fundamentals mirrors

Non-Math readers meet the same fork earlier: Technology overview Zone A (ITS vs computational) and the proof taxonomy on Why not all proofs are equal. Quantum vs emptiness for the hardness calendar lives on Quantum myths vs real bounds. PQ tunnel coexistence ships under Solutions.

Formal mathematics and notation

Formal reading of the matrix

The ITS column is model-scoped: empty-channel claims target zero conditional mutual information and anti-unicity under axioms P1–P4. Computational columns remain hardness clocks. Job fit is the point, not trophies.

Matrix row for empty-channel authorization

I(X;O\mid C)=0

Read as: Given the public challenge, the observable transcript carries no mutual information about the hidden state.

Arguments

$X$: : secret or private ceremony state being protected
$O$: : observable transcript available to the verifier or attacker
$C$: : challenge context that scopes the observation

Operators

$I$: : mutual information used to measure effective leakage
$\mid$: : conditioning on the public challenge
$= 0$: : zero effective leakage in the model-scoped ITS column

Significance: This is the formal axis that distinguishes the Channel Zero row from possession credentials, ZK artifacts, and PQ transport.

Computational contrast: JWT/TLS, passkeys, ZK systems, and PQ-TLS remain evaluated through possession, verification artifacts, or hardness calendars; this row asks whether the transcript leaks at all.

References:Channel Zero Computational bargain Proof taxonomy

Notation: glossary. Taxonomy: Why not all proofs are equal. Scope: Claims.