MissionLab demo

One product. Four academic entry points.

Choose the audience first. The spacecraft model remains shared; the theory depth, controls, evidence and engineering expectations change.

Guided mission learning

Explorer · Grades 6–8

A prediction, a short Digital Twin investigation, visible evidence and an age-appropriate engineering decision.

Evidence: Graph, explanation and mission result

Quantitative practical STEM

Builder · Grades 9–10

Controlled comparisons, calculations, telemetry plots and explicit model-versus-measurement boundaries.

Evidence: Calculations, plots and comparison

Systems thinking and trade studies

Engineer · Grades 11–12

Configuration, constraints, uncertainty, mission policy and evidence-backed recommendations.

Evidence: Engineering memo and trade rationale

Digital Twin, Mission Control and V&V

Mission Systems · University

The professional Digital Twin workspace, Mission Control capability, model identity, provenance, comparison and V&V-style conclusions.

Evidence: Requirements, test and evidence matrix

1 · Frame

Start with the learning objective

Map the institution’s objective to a mission question, expected evidence and appropriate academic depth.

2 · Run

Show one mission decision

Predict first, run a bounded comparison, inspect evidence and make a decision. Do not imply that software evidence was physically measured.

3 · Extend

Choose the right next step

Discuss a programme, Digital Twin engineering use or optional supervised hardware only after the software story is clear.

University integration truth

The current product includes a runnable Digital Twin workspace, Mission Control and a versioned Developer API with TypeScript, Python and Jupyter source clients for explicitly enabled local/private evaluation. No stable production-public API, browser credential flow, arbitrary hosted code execution or research-grade hardware access is offered by this page.