Follow every beam.
Change power and outgoing angles. See the force vector and where the energy goes.
METRIC FLIGHT / STRUCTURE / LIGHT / MOTION
VISUAL LABORATORY · EDITION 10The structure inside.
The motion outside.
Explore how a material’s structure can shape its interaction with light—and what it takes to turn that interaction into a trustworthy force prediction.
Original schematic animation · external illumination · no spacecraft performance claim. Text description
01 / FOLLOW THE CONNECTION
From a mission
to the material.
A spacecraft concept sets the goal. External sunlight or a supplied beam provides the momentum exchanged with its optical surface.
These are different levels of description. A 150 nm structural wall in a cuprate is not a graphene grain boundary, and neither establishes an Alpha 1 interaction.
02 / FIVE CONNECTED TOOLS
Change something.
Understand what follows.
Open force workbench ↗
See what a map can miss.
Compare synthetic fine structure with a blurred observation. Explore why resolution matters.
Switch a published optical state.
Inspect a real graphene device’s reported angles and efficiencies, then calculate one limited momentum contribution.
Make uncertainty visible.
See how noise, calibration and correlated thermal drift affect a proposed measurement.
Compare assumptions, sample by sample.
Import a local CSV and compare bounded two-channel optical models. Export every assumption.
03 / WATCH THE EXPLANATION
Structure. Light. Motion.
A short visual introduction, a technical walkthrough and three focused films. Each follows the same assumptions used by the tools.
Watch the films↗What is shown?
Published evidence belongs to the cited researchers.
Calculated results depend on stated inputs.
Illustrative scenes explain a concept and are not company measurements.
Published evidence belongs to the cited researchers.
Calculated results depend on stated inputs.
Illustrative scenes explain a concept and are not company measurements.
04 / THE EVIDENCE
The boundary is part
of the question.
Recent cuprate imaging reveals broad structural regions within a nominal crystal phase. Existing graphene experiments show that electronic boundaries can scatter plasmons. Together they motivate careful material characterization; the mechanisms and specimens remain distinct.
Research basis: Evie Ladbrook, 2026 · Z. Fei et al., 2013. Read findings and limits ↗
Inspect the evidence and model limits↗A material model is a starting point. A prediction earns confidence through measurement, controls and independent review.