
Tiling Patterns and Honeycomb Efficiency
Hard
Why do bees build hexagonal honeycombs instead of square or triangular ones? This project explores which shapes can tile a flat surface without gaps and which shape uses the least material.
You build pentominoes from LEGO bricks and heptiamonds from pattern blocks. You cut wheelbarrow and kite-and-dart pairs from tagboard. Then you test whether each shape can fill a grid or cover a flat plane.
Twelve pentominoes can tile several rectangular grids. All but one of the 24 heptiamonds tile a plane on their own. Using algebra and geometry, you prove that hexagons use less wax than squares or triangles to create the same area.
Hypothesis
The hypothesis is that some shapes can tile an infinite plane while others cannot.
Method & Materials
You will build pentominoes, heptiamonds, wheelbarrow, and kite #n# dart pairs from legos, pattern blocks, tagboard, and manipulatives. You will then experiment with tiling appropriate rectangular grids and planes using these shapes.
You will need legos, pattern blocks, tagboard, and manipulatives.
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See what’s includedResults
We discovered that some shapes can tile an infinite plane while others cannot. We also found that hexagons are the most efficient shape for tiling, consuming the least amount of wax to create the same amount of area.
Why do this project?
This science project is interesting and unique because it combines mathematics, geometry, and art to explore the fascinating world of tiling and tessellations.
Also Consider
Experiment variations to consider include exploring other shapes that can tile an infinite plane, such as octagons or pentagons, and experimenting with different types of tessellations in nature, such as crystals or snowflakes.
Full project details
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