Geodesic Dome Compression Load STEM Challenge (ENG03) | Architectural Engineer

🌐 Geodesic Dome Compression Load STEM Challenge (ENG03) Explore structural mechanics, load distribution, compression forces, and geometric efficiency! The Geodesic Dome Compression Load STEM Challenge (ENG03) challenges middle school student teams to act as architectural engineers, designing a lightweight, high-strength geodesic dome to support maximum compression load weight. Students explore compression vectors, structural geometry (triangles vs. polygons), 2V geodesic dome patterns, load transfer networks, and structural efficiency math! 📦 What is Included in This 3-Page Packet: Page 1: Teacher Guide & Lesson Plan: NGSS alignment (MS-ETS1-1, MS-ETS1-2, MS-PS2-2), target science concepts, and strut preparation guide. Expected student outcomes, answer keys, and load platform testing safety tips. Perfect for your TGM Product Preview! Page 2: Student Mission Card & Blueprint: Real-world architectural engineering and humanitarian shelter scenario hook. Clear material limits box (struts, connectors, tape, metric ruler, digital balance). Dedicated Geodesic Dome Network & Vector Schematic sketching zone. Page 3: Testing Log & Scientific Reflection: Structured Data Testing Table: Track unloaded dome mass (g), maximum load held at failure (g/kg), and structural failure modes. Applied Math Connection: Calculate Structural Efficiency Ratios (Load Mass / Dome Mass). Physics Reflection Questions: Analyze triangle stability, compression force transfer vectors, and structural failure point reinforcements. 📐 Core STEM Skills Covered: Architectural & Structural Engineering, Dome Shell Mechanics Compression Vector Analysis, Geometric Triangular Rigidity Data Logging, Precision Mass Measurement (g/kg), and Ratio Calculations Failure Mode Analysis and Structural Efficiency Optimization 💡 Why Teachers Love This Resource: 3-Page Professional Layout: Includes a complete Teacher Guide for seamless prep, keeping student lab sheets clean and ready to print! Low-Cost Materials: Uses simple drinking straws or rolled paper, paperclips or clay, tape, and testing weights/washers. High-Impact Physics Lab: Turns architectural structural equations into a high-stakes, competitive, and measurable destruction test! Format: High-resolution, print-ready PDF format (3 Pages).