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Autonomous Rover Mission

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Grades 9-122-3 hoursSource: Creative Dad Company

Students build a small rover that has to navigate a simple obstacle course on its own, using sensors for guidance and a plan for what happens when it gets stuck. It's a compact, high-energy intro to real robotics engineering.

The newer career collection is Creative Dad On the Job. This lesson stays in the library.

Budget levels

Materials list coming soon to members

Materials links go to Amazon. Prices are estimates and may change. As an Amazon Associate, Creative Dad Company earns from qualifying purchases.

Quick Start

Digital downloads only. $0 to buy. Printing is noted separately.

Materials list coming soon.

Student time: one class period, one day.

Teacher prep / build-ahead: separate from student time.

Scale it

The default plan is one class period on a single day.

Scale back: Fit it into a shorter period, use fewer effects, or run a demo instead of a build.

Scale up: Add one extra effect, or spread the share-out across another day.

Ambiance video

Ambiance video coming soon from Creative Dad Studio

Full Experience

Up to $25 per class (class of about 30, 6 groups).

Materials list coming soon.

Student time: one day.

Teacher prep / build-ahead: separate from student time.

Scale it

The default plan is one school day.

Scale back: Fit the build into one period with fewer effects.

Scale up: Spread the work across days, or add more effects.

Total Transformation

The bigger kit, priced per class (class of about 30, 6 groups).

Materials list coming soon.

Student time: one day (one session, one-day event).

Teacher prep / build-ahead: separate from student time.

Scale it

The default plan is one session, a one-day event.

Scale back: Shorten the event, or run a demo for a smaller audience.

Scale up: Spread the build and the event across days, or invite a bigger audience.

Choose your version

Every level teaches the same core idea — pick the one that fits your time, budget, and energy today.

Student time: 30 min, one class periodTeacher prep / build-ahead: 10 min$0 to buy. Printing noted separately.One table for the Autonomous Rover Mission evidence and prototypeBeginner-friendly

Setup

Print or handwrite the four Autonomous Rover Mission challenge steps and place common paper supplies on one table. Prepare one small sample, dataset, scenario, or recycled-material model drawn directly from the project description; no device, paid tool, room decoration, or purchased kit is required.

Activity

  1. Read the Autonomous Rover Mission challenge aloud, then sketch a simple obstacle course and predict which obstacle will be hardest for a small rover to sense and avoid.
  2. Use paper, index cards, recycled objects, or facilitator-provided sample data to build the rover using a basic motor and wheel base, wiring in a sensor for obstacle detection.
  3. Run one tabletop trial and run it through the course and discover it gets stuck or misreads an obstacle, then adjust the sensor placement or steering logic.
  4. Finish by demonstrate a full successful run to the group and explain what the recovery plan was for the moment it got stuck; record the evidence that supports the decision.

Ambiance video

Ambiance video coming soon from Creative Dad Studio

Done when: The group completes a defensible Autonomous Rover Mission solution, records at least one test result or comparison, changes one claim or design in response, and supports its final decision with that evidence.

Materials

small motor and wheel set, battery pack, cardboard, tape, ultrasonic sensor module

Shown for the Quick Start version — switch tabs above to see what changes.

Materials links go to Amazon. Prices are estimates and may change.

As an Amazon Associate, Creative Dad Company earns from qualifying purchases.

  • Small DC gear motor and wheel set

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  • Ultrasonic sensor module

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  • AA battery pack with switch

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Steps

  1. Sketch a simple obstacle course and predict which obstacle will be hardest for a small rover to sense and avoid.
  2. Build the rover using a basic motor and wheel base, wiring in a sensor for obstacle detection.
  3. Run it through the course and discover it gets stuck or misreads an obstacle, then adjust the sensor placement or steering logic.
  4. Demonstrate a full successful run to the group and explain what the recovery plan was for the moment it got stuck.