Towards Ultra Personalized 4D Printed Shoes
Authors
In this case study three designers supported by multiple stakeholders created a pair of fully personalized printed high heel shoes in a period of two months for a single user. The shoes are made with soft and flexible materials for dynamic fit and use. The shoes are not only uniquely formed to the user’s feet but the geometry of the material is designed to support and flex with the movement of each foot. These shoes utilize a 4D printing approach in the way they are made to fit the user while they move and change. Designing a shoe to such a degree represents a form of Ultra Personalization. This case study of an ultra personalized approach addresses the negotiation of key design considerations: aesthetics, comfort, robustness, balance and temperature. The findings inform digital fabrication design, software, and tools for designers.
Research Questions / Practical Problems
Question signals indexed for this paper.
- 100%
The Making of Performativity in Designing [with] Smart Material Composites
CHI '18· Shape-Changing Interfaces & Soft Robotic Materials +1
- 100%
A-line: 4D Printing Morphing Linear Composite Structures
CHI '19· Shape-Changing Interfaces & Soft Robotic Materials +1
- 100%
Engineering Multifunctional Spacer Fabrics Through Machine Knitting
CHI '21· Shape-Changing Interfaces & Soft Robotic Materials +1
- 100%
ShrinCage: 4D Printing Accessories that Self-Adapt
CHI '21· Shape-Changing Interfaces & Soft Robotic Materials +1
- 100%
ElectriPop: Low-Cost, Shape-Changing Displays Using Electrostatically Inflated Mylar Sheets
CHI '22· Shape-Changing Interfaces & Soft Robotic Materials +1
- 100%
EpoMemory: Multi-state Shape Memory for Programmable Morphing Interfaces
CHI '23· Shape-Changing Interfaces & Soft Robotic Materials +1
- 100%
Thermotion: Design and fabrication of thermofluidic composites for animation effects on object surfaces
CHI '23· Shape-Changing Interfaces & Soft Robotic Materials +1
- 100%
ExCell: High Expansion Ratio Moisture-Responsive Wooden Actuators for DIY Shape-Changing and Deployable Structures
CHI '24· Shape-Changing Interfaces & Soft Robotic Materials +1
- 100%
Siloseam: A Morphogenetic Workflow for the Design and Fabrication of Inflatable Silicone Bladders
DIS '20· Shape-Changing Interfaces & Soft Robotic Materials +1
- 100%
Ondulé: Designing and Controlling 3D Printable Springs
UIST '19· Shape-Changing Interfaces & Soft Robotic Materials +1
Based on Jaccard similarity of research subtopics & professions (≥60%)