Digital Design and Simulation of Knit Panels for Transforming Scissor Structures
Digital Design and Simulation of Knit Panels for Transforming Scissor Structures

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DOI:

10.31182/cubic.2025.8.82

Keywords:

simulation, fabrication, digital to physical, textiles, transformative design

Abstract

As architecture faces demands for adaptability, transformable design offers vital strategies for dynamic spatial configurations. This research explores the integration of knitted textiles with transformable scissor grids to create collapsible architectural walls. By utilising the elasticity of knitted materials, the project optimises expansion and retraction of the surface membranes, enhancing adaptability. Digital simulations are used to predict the textile behaviours and informed he material development and patterning. The final design incorporates two offset scissor grids, adding depth and dynamic interplay between colour and pattern. Using nylon yarns and nylon-covered elastic yarns created a range of elastic responses, enabling the membrane to stretch and contract with the transformable grid whilst maintaining tension. This integration enhanced the visual expression of movement, allowing colours and patterns to shift during transformation. The study demonstrates how knitted membranes can infill scissor grids creating enclosure, providing stability, whilst enabling dynamic, responsive surfaces for adaptive architectural design.

How to Cite

Melnyk, V. E. (2025). Digital Design and Simulation of Knit Panels for Transforming Scissor Structures. Cubic Journal, 8(8), 91–104. https://doi.org/10.31182/cubic.2025.8.82

Published

2025-12-01

Author Biography

Virginia Ellyn Melnyk, Iowa State University of Science and Technology

Virginia Ellyn Melnyk is a designer, researcher, and educator whose work explores the intersection of digital design, material innovation, and adaptive architecture. Her practice integrates computational design with hands-on making, focusing on transformable structures and the use of knitted textiles within architectural applications. Virginia holds degrees in architecture from the University of Pennsylvania and the University at Buffalo and is currently completing her PhD in architecture, investigating knitted membranes for deployable structures. Her work has been exhibited internationally and has received many awards. As an educator, Virginia has taught across design studios and digital fabrication courses, at university such at University at Buffalo, Clemson University, Virginia Tech, and currently at Iowa State University. Her research and practice aims to advance sustainable, adaptive design methodologies, emphasizing tactility, interaction, and the environmental potential of lightweight, transformable systems in architecture. Virginia envisions a future where architecture adapts seamlessly to meet changing needs and conditions.

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