42+ kinematic operators. One master equation. Every computation cryptographically verified, phase-stamped at 1.287 Hz, and sealed with ZeqProof. From quantum mechanics to general relativity — in a single API call.
Zeq is a generative mathematics framework that compiles any physical problem — quantum, classical, or relativistic — into operator weights on a single master equation, solves it, and returns a cryptographically sealed result.
Quantum mechanics, Newtonian mechanics, general relativity, and computer science — all accessible through a single unified API. Select operators, compile, execute.
Every result is signed with HMAC-SHA256, binding the computation to its Zeqond timestamp, operator chain, and precision metrics. Tamper-evident and independently verifiable.
Kspectral × Ktemporal × Kchaos — three mathematically independent key layers derived from the framework's own equations. Not bolted on; built in.
Proof-verified state transitions with JSON contracts, a Zeqond audit clock ticking at 1.287 Hz, and air-gapped enterprise deployment. Not a blockchain — proved by math.
Lossless (ZeqCompress) and lossy (TurboZEQ) codecs integrated with the KO42 metric tensioner. IEEE 754 f64 throughout. Phase-coherent with the Zeqond clock.
The deterministic oscillator at the heart of everything. Defines the Zeqond (0.777s), drives the KO42 metric tensioner, timestamps every computation, powers the audit chain.
Every operator maps to a real equation of physics or computer science. The SDK gives you access to all of them through a single endpoint.
Every computation follows the same deterministic protocol — from operator selection to cryptographic verification.
The HulyaPulse oscillation is injected into the spacetime metric. Every computation is phase-aware from the start.
Choose up to 3 kinematic operators from the catalogue. Each one activates coupling terms in the master equation.
Quantum operators for atomic scale, Newtonian for human scale, relativistic for astrophysical. Cross-scale is permitted.
Solver parameters adapt to hit the precision target. Step size, tolerance, and iteration limits auto-calibrate.
Operators become coupling weights Ck(φ). The HULYAS Master Equation is parameterised with problem-specific values.
Fourth-order Runge-Kutta solves the compiled equation. The Functional and Spectral-Topological equations extract observables.
Result is modulated by R(t), signed with HMAC-SHA256, and stamped with its Zeqond number. Independently verifiable forever.
POST an operator and parameters. Get a verified result with cryptographic proof.
Full documentation, API reference, operator guides, and code examples in Python, JavaScript, Go, Rust, and curl.