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Nano-Zeqond Evolver

The Nano-Zeqond Evolver is a working demonstration that the framework's physics is real and runs right there in the browser. It evolves the HULYAS master equation and runs molecular dynamics at nano-zeqond resolution, emitting a state snapshot every 0.777 s Zeqond. The 1.287 Hz pulse modulates the metric at every step, and KO42 holds energy drift to ≤0.1%, reported live.

Three engines, one clock​

Master-equation field

Each print is one differential update of the evolving field ϕ. Between prints it integrates at nano-zeqond resolution; every snapshot lands on the Zeqond boundary.

Molecular dynamics

Velocity-Verlet integration of F = ma under a shifted-truncated Lennard-Jones potential with periodic boundaries — a real NVE MD engine, energy and momentum conserved.

GPU field

The 2-D field ϕ(x,y,t) on a 256×256 grid, stepped in parallel on the GPU — same physics, verified to match the CPU reference to float precision, billions of cell-updates per second.

Real physics, honestly bounded​

The molecular-dynamics engine integrates NM19 (F = ma) under a Lennard-Jones potential plus harmonic NM30 bonds, in the NVE ensemble — so total energy and momentum are conserved, and the drift is held to ≤0.1% by KO42 and shown to you as it runs. It reports real MD throughput: nanoseconds of molecular time per wall-second, in reduced units mapped to argon. The GPU path computes the field equation ∇²ϕ − μ²ϕ − λϕ³ entirely in fragment shaders and is checked against the CPU evolver to float precision — the same physics, two implementations, agreeing.

It runs right in your browser — the clearest proof that Zeq's physics is a real engine you can watch integrate, on the clock, to the bound it claims. The very same physics is what your hosted machine runs when you compute at scale.

Open it​

Open the Evolver →

Watch the field and the molecular dynamics integrate, live, on the Zeqond.