Operators
An operator is a named, catalogued piece of mathematics — NM19 is F = ma, GR37 is
r_s = 2GM/c², QM9 is λ = h/p. The IDs are the machine's vocabulary: every compute names the
operators it ran, every contract names the operator each transition fires, and every
audit row names the operator it proves. The live registry carries 1,600+ operators across 65
categories — browse the full operator reference, where every category
states how it computes.
What an operator ID buys you
When you request an operator, a dedicated closed-form solver evaluates the real formula with CODATA constants — the ID selects the physics, and the pipeline validates, computes, verifies, and signs it. Reproduce these right now:
# NM19 — F = ma
curl -sX POST https://zeqsdk.com/api/zeq/compute -H "Authorization: Bearer $ZEQ_KEY" \
-H "Content-Type: application/json" \
-d '{"operators":["KO42","NM19"],"inputs":{"m":10,"a":3}}' # → 30 N
# GR37 — Schwarzschild radius of the Sun
-d '{"operators":["KO42","GR37"],"inputs":{"mass":1.98892e30}}' # → 2954.0077 m
# QM9 — de Broglie wavelength of an electron at 10⁶ m/s
-d '{"operators":["KO42","QM9"],"inputs":{"m":9.109e-31,"v":1e6}}' # → 7.274e-10 m
Type safety
The registry is the type. An operator ID that does not exist is refused with
UNKNOWN_OPERATOR — never silently computed as though it were real. A real operator given the
wrong inputs names exactly what it needs (the honesty contract).
The 42+ kinematic bootstrap set
The core families every physics reader knows — reachable without any dispatch logic:
- QM1–QM17 (quantum): Schrödinger, uncertainty, superposition, entanglement, tunnelling,
de Broglie,
E = hν, Dirac, Bose–Einstein / Fermi–Dirac, the Born rule. - NM18–NM30 (Newtonian): the three laws, gravitation, work, kinetic & potential energy, momentum and its conservation, angular momentum, torque, the harmonic oscillator.
- GR31–GR41 (relativity): equivalence, the Einstein tensor and field equations, geodesics,
time dilation,
r_s, gravitational waves, Friedmann, redshift. - CS43+ (computation): complexity classes, Amdahl, Shannon entropy, Big-O, Kolmogorov.
Every formula, verbatim from the registry, lives in the reference — the tables there are generated from the live system.
What the engine does — and does not — evaluate
Σ_{k=1..42} C_k(ϕ) termSome framework literature writes the operators as a coupling term Σ_{k=1..42} C_k(ϕ) inside the
master equation. Treat that as notational/organisational, not a defined operator: the catalogue
contains inequalities (QM2), implications (NM18), and asymptotic notations (CS84, CS87) that
are not real-valued functions of a field ϕ, and no literal C_k(ϕ) mapping is implemented. The
physics you get from the API comes from the dedicated domain solvers, verified against CODATA.
The differential master-equation engine integrates its own well-posed
□ϕ = ∇²ϕ − μ²ϕ − λϕ³ core.
Coverage is measured, not assumed — most of the 65 categories are served by a dedicated closed-form solver, and the rest by the universal numerical engine, so every operator returns a real, deterministic value with its method disclosed. A test cross-checks the coverage model against the live dispatch on every build.
The referential (frontier) family
The self-referential operators (ON0, XI1, LZ1, the ZEQ-PROTECT/TETHER/POCKET forms…)
are the framework's frontier research surface — real, exploratory mathematics for information,
complexity, and the thermodynamics of computation. Several are established equations (LZ1 is
Landauer's principle; XI1 is Shannon entropy). They are not asserted as verified physics of
consciousness, and the standard compute path does not evaluate their specific formulas: selecting
one runs the transparent master-equation ODE fallback, which returns a
real, deterministic value carrying a NUMERICAL FALLBACK disclosure. The operational security of
the product is standard, audited cryptography (AES-256-GCM, HMAC-SHA256, PBKDF2 — see
security), never these expressions. One (ZEQ000) is ill-posed as written — its
exp(2π·2.083·t) term diverges — and is catalogued with that warning.
Composition
A call carries KO42 plus up to three more operators (max 4). KO42 is the
bounded HulyaPulse modulation, applied once per result; the ≤0.1% figure is the
modulation amplitude bound |α·sin| ≤ 10⁻³ by construction — not a proof of physical accuracy.
The limit keeps every call a small, auditable set. Valid compositions you'll meet in the wild:
KO42 + QM9 + NM23— de Broglie wavelength inside a kinetic-energy calculation.KO42 + GR35 + NM22— time-dilated work.KO42 + QM1 + QM17— Schrödinger evolution of a probability distribution.
Need something deeper? Chain CKOs (each independently signed and verified), or deploy a contract — pre-composed operator logic with a full audit trail per fire.
Read next
- The solvers — how an ID becomes a number, and the coverage map.
- The seven-step protocol — what each step guarantees.
- The operator reference — all 65 categories, every formula verbatim.