Our system deals with folding and stacking. We found that by folding pieces of paper we were able to create many different hexagon forms. By stacking several hexagon shapes together, we were able to create a larger form resembling a honeycomb. Within this honeycomb structure, we found that the width of each hexagon must be the same in order for them to fit seamlessly, however, the height of the hexagons can vary. As the height of the sides change, the surface of the honey comb undulates, adding an element of momvement to the piece as a whole. Alternatively, separate honeycomb forms can be made to arc and curve differently by changing the widths of the top and bottom of the hexagon used. The difference in the width from the top of the hexagon to the bottom determines the angle at which the honeycomb turns in on itself. We can use these rules to manipulate the honeycomb structures into different undulating forms to suit different programs for the front of Blake Hall. For example, lower bending forms could create seating, while taller structures create walls, rooms, or overhead structures. Every cell in the honeycomb form can have its own characteristic depending on its location. Some could hold vegetation, while others could direct sunlight, provide artificial light, or contain translucent filters to change the color of light in certain areas.
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