Theory
Define quantities, units, and the comparison you will calculate. Stage intent: rates/error.
For teachers
Everything you need to run the lesson: the prompts for this academic depth, the diagnostic answer key, the misconceptions to watch for, and the truth boundary to hold.
A spacecraft cannot see itself. Everything it reports comes from instruments, and instruments are never perfect. Your team will fly the same manoeuvre twice, changing nothing except the quality of the instruments, and find out what that does to what the spacecraft knows about itself.
These prompts come from the academic layer, so they change with the depth you selected.
Define quantities, units, and the comparison you will calculate. Stage intent: rates/error.
Predict a quantitative difference between baseline and candidate.
Execute baseline/candidate Twin runs and export a table or plot. Runtime remains the frozen Twin; this plan does not execute physics.
Confirm the calculated difference against the mission criterion.
Calculate, model, compare, and test using simulated evidence only. Evidence intent: telemetry table/plot + data-quality or provenance statement.
Recommend the candidate with quantitative support and stated uncertainty.
Name at least one frozen-model limitation that this experiment cannot answer.
Keep simulated, simulated_sensor, estimator_state, derived, reference, and measured distinct. Never label simulated as measured.
A spacecraft instrument gives a noisy reading. What does that tell you about the spacecraft?
One session of 55–70 minutes. Adjust freely — the sequence matters more than the clock.
| When | Stage | What you are doing |
|---|---|---|
| 0 → 5–6 min | Mission | Set the role, objective, mission question, and success criterion. |
| 5–6 → 17–21 min | Preparation | Diagnostic, theory, and a written prediction before any run. |
| 17–21 → 20–25 min | Readiness | Learners confirm the local formative gate after preparation passes. |
| 20–25 → 35–45 min | Operate | Run the bounded baseline, then the candidate where comparison is disclosed. |
| 35–45 → 47–60 min | Evidence | Inspect provenance, select evidence, decide, state a limitation, and complete the formative assessment. |
| 47–60 → 53–68 min | Complete | Review the result band, reflect, and finalize local practice at any band. |
| 53–68 → 55–70 min | Recognition | Explain the local record and the separate future verified-recognition boundary. |
Authored lesson design — what a class reliably gets wrong here, and where you can catch it. Not a claim about any learner.
“The reading is noisy, so the spacecraft has drifted off course.”
Put the truth trace and the estimate trace side by side. The spacecraft is where it always was; it is the knowledge of where it is that degraded.
Watch: the "sensor" diagnostic · Code: truth_estimate_measurement_confusion
“The average error tells you how wrong the estimate ever got.”
Ask for the worst value as well as the average. The difference between them is the whole reason engineers quote both.
Watch: evidence — The truth-against-estimate comparison for both sets of instruments · Code: units_scale_or_sign_error
“Worse instruments must mean the spacecraft ends up further off.”
Let the prediction stand before the run, then reveal that it does not. Ask what the instruments actually affect — knowledge, not motion — and let the class rebuild the causal chain.
Watch: evidence — My prediction · Code: cause_effect_or_control_logic_reversal
Why can a spacecraft be on target while its estimate is wrong, and what additional validation would build confidence?
The degraded instruments did not move the spacecraft. Describe a mission task where that error would have changed the outcome, and name the figure you would set a limit on.
Draw three columns headed true, measured and concluded. Place five statements from your run in the right column. Any statement you cannot place is the interesting one.
Can the learner state that the truth error was identical across both runs, and explain why that matters?
Home mission: the wrong clock
Think of a clock that runs five minutes fast. Write down what is actually true, what the clock says, and what someone reading the clock would believe. Then write one sentence about which of those three a spacecraft engineer would most want to check.
Ten questions, answered locally. Nothing is submitted or tracked — you download the file and send it if you want to.
This local-first form contains the ten approved pilot-review questions. It does not submit, track, or store data remotely. Optional name/contact should be handled outside this form only if a reviewer volunteers it.