TENSEGRITY STRUCTURE: THE DESIGN DEVELOPMENT OF TENSEGRITY STRUCTURE FOR FURNITURE DESIGN

Abstract

The origins of Tensegrity structures were discovered more than seventy years ago and are widely employed in engineering and architecture for the construction of bridges, domes, and buildings. However, these structures necessitate thorough classification, development, and application. The primary objective of this research is to scrutinize innovative concepts and propose design advancements grounded in the prevalent use of tensegrity structures in architecture and engineering. The specific research objectives are delineated as follows: 1) Investigate the historical evolution of Tensegrity structures, 2) Classify structures based on their properties, facilitating their appropriate application in design, and 3) Develop products derived from the Tensegrity framework with the potential for broad applicability across various contexts, including furniture and home decorations.

The fundamental principle guiding the operation and characteristics of Tensegrity structures is the emphasis on focused tensile forces, utilizing solely two forces - compression and tension - to amalgamate the entire structure, ensuring its independent formation and stability. Networked tensile forces can generate internal compressive forces within the carrier structure, with compressed members typically not interconnecting or in contact. These structures exhibit robust, lightweight, flexible, and adaptable characteristics, rendering them suitable for a diverse range of design applications. Consequently, they manifest the potential to be developed for various purposes and are well-suited for different types of structures.

This qualitative experimental research initiative systematically explores the integration of Tensegrity structures into various design domains. The six-part research methodology includes an exhaustive examination of existing knowledge. Part 1, Exploration of Tensegrity Structure. Part 2 Classified according to properties for discerning advantages and disadvantages. Part 3, Data Collection and Synthesis, actualization of the design concept through data synthesis for discerning advantages and disadvantages, collection and synthesis of pertinent information. Part 4, Design Development. Part 5, Formulation of experiment hypothesis. Part 6 is exclusively dedicated to presenting innovative design concepts inspired by Tensegrity structures, showcasing diverse designs and artistic products pivotal for their continued utilization and development.

The research results found that Tensegrity structures possess the potential and capability for further development across a variety of design expressions. This study furnishes comprehensive foundational knowledge regarding the Tensegrity structure. Encompassing definitions, classifications, properties, and applications, Tensegrity serves as an essential foundational database and knowledge repository crucial for applications, advancements, and design optimization.

-