STIIX Wind Turbine Project

Build energy from air

Students design and build a functional wind turbine prototype, diving into renewable energy, aerodynamics, and mechanical engineering in a real-world STEM challenge.

By the project’s end, students don’t just understand wind power—they’ve built a turbine that works, reflected on its design, and connected to meaningful STEM careers.

Unlock Your Students’ Engineering Superpowers with STIIX-Ville

STIIX-Ville is a dynamic maker world where students become real engineers—building bridges, clean-energy systems, HVAC models, water networks, and glider planes through hands-on exploration. It turns every STEM challenge into an exciting, build-test-innovate adventure.

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Standard Alignments

Onboarding PD Provided

Advanced-Use PD Provided

Value Vs Cost

Durability/Quality

Additional Equipment Required

No

Prior Tech Knowledge Necessary

None

STIIX Wind Turbine Project: Powering STIIX-Ville with Renewable Energy

In the STIIX Wind Turbine Project, students become energy engineers in STIIX-Ville, tackling the challenge of building a working wind turbine to power their community. Their mission: design, build, and test a turbine capable of lifting a weight with wind power—modeling how real turbines generate energy.

Through approximately 3–5 hours of class programming, learners engage in a full engineering design cycle. The curriculum includes five scaffolded video modules—Intro, Academic Concepts, How-To Build, Testing & Evaluation, and a Career Spotlight—with real-world applications and career connections. Students explore how blade size, shape, number, and pitch influence the power produced and how to optimize their design for maximum energy conversion.

During the build phase, students construct their turbines using STIIX modular components, then test them using wind sources (like fans or a hairdryer) and measure how much “power” their turbine can generate by observing how much weight their design can lift. Through iterative testing, teams refine their models—adjusting blade geometry, angle, or material to improve performance.

As they analyze performance and redesign, students wrestle with real engineering trade-offs: optimizing efficiency vs simplicity, tweaking for strength vs flexibility, and adjusting for stability vs power. These lessons mirror renewable energy engineering challenges faced by professionals.

Teachers receive full support with ready-to-use guides: slide decks, build logs, evaluation worksheets, and reflection prompts aligned to NGSS (e.g., energy transfer and engineering design)

Bring structure and excitement to hands-on learning with STIIX-Ville — your digital hub for project guides, assessments, and student progress tracking.

What’s Included in the Box:

  • STIIX structural sticks & connectors
  • Rotor blades / turbine arm components
  • Base or mounting pieces
  • Hub / rotor disc
  • Load-lifting components (hook or weight system)
  • Build-log and design-sketch worksheets
  • Testing & evaluation guide (measuring lift, performance)
  • Reflection & iteration prompts
  • Teacher slide deck and lesson plan
  • Instructional video series (5 modules: Intro, Academic, How-To, Testing, Career)

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