Description
In the Pasta Rover Lunar Surface Transport Mission, students become Space Colony engineers as they design and build a pasta-and-hot-glue rover that carries a small payload across a three-zone lunar terrain course — all within a credit-based materials budget. Set inside the Space Colony Architects narrative theme, this 2-week unit raises the stakes from the mobility labs by adding budget constraints and a random engineering event card that introduces an unexpected mid-build challenge teams must incorporate before testing.
What Students Will Do
* Plan a rover design on paper within a credit-based materials budget before purchasing any materials
* Build a pasta-and-hot-glue rover capable of carrying a small standardized payload
* Draw and respond to a random engineering event card that introduces a mid-build design constraint
* Test the rover on a lunar terrain ramp, record distance traveled, and complete one evidence-based redesign
* Conduct a final locked run and document whether the redesign improved payload delivery performance
What's Included (9 Documents)
* Lesson Plan — Complete teacher guide with full TEKS alignment, day-by-day pacing, learning targets, and vertical alignment notes connecting to prior and future grades
* Training Sheet — Student-facing challenge introduction connecting the narrative theme to the engineering concept, with key vocabulary and a practice activity before any building begins
* Planning Sheet — Structured design document where students sketch, label materials, check constraints, and earn teacher initials before touching any materials
* Data Sheet — Quantitative and observational data collection formatted for this challenge's specific testing metric
* Engineering Rubric — 20-point, 4-category teacher assessment that rewards the engineering process — planning, execution, data rigor, redesign reasoning, and reflection depth
* Redesign Sheet — Evidence-based iteration document requiring students to cite specific data before proposing any build change
* Reflection Sheet — Four structured questions moving students from restating the challenge to analyzing data to proposing a third design to connecting their work to real engineering
* Student Quick Reference — Concise summary card with the challenge, locked constraints, week sequence, team roles, data checklist, and key vocabulary
* Teacher Clarity Guide — Non-negotiables, standardized testing protocol, specific teaching moves, and a Common Mistakes section with exact response language
The Engineering Phase System
Every project moves students through a structured, color-coded arc:
Blue Phase — Plan & Prototype: Students complete vocabulary and concept work, sketch their design, check constraints, and earn teacher approval before any materials are touched.
Green Phase — Build, Test & Improve: Students build, conduct controlled tests, record data, and use evidence to complete the Redesign Sheet before modifying their build.
Purple Phase — Final Test, Reflect & Present: Students run their final locked test, complete the Reflection Sheet individually, and participate in a debrief, gallery walk, or showcase.
Why Teachers Love This
- Complete Engineering Design Process every time, no shortcuts
- Narrative-driven context sustains student motivation through data collection and testing
- Low prep — pick it up and teach it
- 9 fully developed documents, nothing to build from scratch
- Rewards engineering thinking, not just whether the build succeeded
- Vertically aligned — skills build deliberately across grades 2-5
Perfect For
* STEAM Labs
* Science Classrooms
* Engineering & Makerspace Units
* After-School STEM Programs
* Enrichment Activities
* Project-Based Learning Units
* Substitute Plans
Standards Alignment
Aligned to Texas TEKS: Science 3.1-3.5; 3.7(A-B); 3.8(B). Technology Applications 3.1. Crosswalks to NGSS: 3-5-ETS1-1, 3-5-ETS1-2, 3-5-ETS1-3 (Engineering Design).
Part of the STEM with Mr. B K-8 STEAM Engineering Curriculum
This listing is one piece of a complete, vertically aligned K-8 engineering curriculum organized by grade, quarter, and narrative theme. Every project builds on skills from the week before. Quarter bundles, grade-level bundles, and the full curriculum are available in the store.
Highlights
Description
In the Pasta Rover Lunar Surface Transport Mission, students become Space Colony engineers as they design and build a pasta-and-hot-glue rover that carries a small payload across a three-zone lunar terrain course — all within a credit-based materials budget. Set inside the Space Colony Architects narrative theme, this 2-week unit raises the stakes from the mobility labs by adding budget constraints and a random engineering event card that introduces an unexpected mid-build challenge teams must incorporate before testing.
What Students Will Do
* Plan a rover design on paper within a credit-based materials budget before purchasing any materials
* Build a pasta-and-hot-glue rover capable of carrying a small standardized payload
* Draw and respond to a random engineering event card that introduces a mid-build design constraint
* Test the rover on a lunar terrain ramp, record distance traveled, and complete one evidence-based redesign
* Conduct a final locked run and document whether the redesign improved payload delivery performance
What's Included (9 Documents)
* Lesson Plan — Complete teacher guide with full TEKS alignment, day-by-day pacing, learning targets, and vertical alignment notes connecting to prior and future grades
* Training Sheet — Student-facing challenge introduction connecting the narrative theme to the engineering concept, with key vocabulary and a practice activity before any building begins
* Planning Sheet — Structured design document where students sketch, label materials, check constraints, and earn teacher initials before touching any materials
* Data Sheet — Quantitative and observational data collection formatted for this challenge's specific testing metric
* Engineering Rubric — 20-point, 4-category teacher assessment that rewards the engineering process — planning, execution, data rigor, redesign reasoning, and reflection depth
* Redesign Sheet — Evidence-based iteration document requiring students to cite specific data before proposing any build change
* Reflection Sheet — Four structured questions moving students from restating the challenge to analyzing data to proposing a third design to connecting their work to real engineering
* Student Quick Reference — Concise summary card with the challenge, locked constraints, week sequence, team roles, data checklist, and key vocabulary
* Teacher Clarity Guide — Non-negotiables, standardized testing protocol, specific teaching moves, and a Common Mistakes section with exact response language
The Engineering Phase System
Every project moves students through a structured, color-coded arc:
Blue Phase — Plan & Prototype: Students complete vocabulary and concept work, sketch their design, check constraints, and earn teacher approval before any materials are touched.
Green Phase — Build, Test & Improve: Students build, conduct controlled tests, record data, and use evidence to complete the Redesign Sheet before modifying their build.
Purple Phase — Final Test, Reflect & Present: Students run their final locked test, complete the Reflection Sheet individually, and participate in a debrief, gallery walk, or showcase.
Why Teachers Love This
- Complete Engineering Design Process every time, no shortcuts
- Narrative-driven context sustains student motivation through data collection and testing
- Low prep — pick it up and teach it
- 9 fully developed documents, nothing to build from scratch
- Rewards engineering thinking, not just whether the build succeeded
- Vertically aligned — skills build deliberately across grades 2-5
Perfect For
* STEAM Labs
* Science Classrooms
* Engineering & Makerspace Units
* After-School STEM Programs
* Enrichment Activities
* Project-Based Learning Units
* Substitute Plans
Standards Alignment
Aligned to Texas TEKS: Science 3.1-3.5; 3.7(A-B); 3.8(B). Technology Applications 3.1. Crosswalks to NGSS: 3-5-ETS1-1, 3-5-ETS1-2, 3-5-ETS1-3 (Engineering Design).
Part of the STEM with Mr. B K-8 STEAM Engineering Curriculum
This listing is one piece of a complete, vertically aligned K-8 engineering curriculum organized by grade, quarter, and narrative theme. Every project builds on skills from the week before. Quarter bundles, grade-level bundles, and the full curriculum are available in the store.
