Abstract
Modularity involves the use of standardized components or modules that can be combined and arranged in different ways to create larger structures or patterns. This approach can lead to efficient manufacturing and maintenance, as well as a wide range of design possibilities. By using modularity in design, designers can create systems that are easily assembled, modified, or scaled. Tessellation, on the other hand, involves using geometric shapes to create a repeated pattern that without any voids or overlaps, totally covers a surface. This technique has been used in various fields, including art, architecture, and mathematics. Tessellated patterns can range from simple shapes like squares or triangles to more complex shapes like hexagons or octagons. Modularity and tessellation techniques can be used together to create complex and visually interesting patterns and structures. For example, architects may use modular building blocks that tessellate to create a unique facade for a building. Product designers may use tessellated patterns to create intricate designs on a surface while maintaining a consistent modular approach to the product’s construction. This research paper examines the applications of modularity and tessellation in design across various fields, including product design, industrial design, architecture, mathematics, software design, art, and sustainable design. The paper proposes three hypotheses related to increased efficiency, cost reduction, and enhanced design flexibility. The conclusion highlights the potential of utilizing modularity and tessellation in design to create more flexible, sustainable, and innovative products and structures that meet evolving customer and business needs.
Details
Presentation Type
Paper Presentation in a Themed Session
Theme
KEYWORDS
Modularity Tessellation Design Strategies Sustainable Design Innovative Products
