Computational research

MQC Simulator

An interactive SGPE-model workspace on T(5,2) knot topology: computation worker, array transfer, 3D visualization and metrics.

Wave-field model · React / TypeScript / Web Worker / Three.js / SGPE

The product problem

Let users change model parameters and observe evolution without mixing numerical logic into the DOM interface.

Stage

A research browser simulator. Numerical accuracy needs reference cases and time-step/resolution studies.

Concept illustration: MQC Simulator
A concept illustration, not a screenshot of a running product.

A numerical model and its visual representation

An illustrative intended journey, not a demonstration of the current live release.

  1. Choose SGPE-model parameters.
  2. Evolve the field in a computation worker.
  3. Transfer state through the data bridge.
  4. Compare the 3D presentation with model metrics.

System components

  • Physics worker: numerical field evolution outside the UI thread.
  • Data bridge: model-array representation and transfer.
  • Three.js renderer: mapping data into a 3D scene.
  • React controls and lifecycle hooks: worker, visualization and audio ownership.

Architecture & ownership

Computation, data transfer and rendering are separate. A rendering change is not a change to, or validation of, the numerical method.

How can numerical accuracy be tested independently of rendering quality and speed?

What to validate before use

Not experimental observation of macroscopic quantum coherence. FPS and allocation goals are not measured guarantees.

This describes the development scope. This page does not run the product, process payments or verify real-time availability.

Related products, distinct problems

Next step

Discuss a MQC Simulator workflow

Describe the problem, current system, constraints and desired outcome. We agree scope and deliverables before cost and launch.

Discuss the task on Telegram ↗

The link opens a human contact; it does not send a message automatically.