Understanding Metamaterial Mechanisms
Authors
In this paper, we establish the underlying foundations of mechanisms that are composed of cell structures---known as metamaterial mechanisms. Such metamaterial mechanisms were previously shown to implement complete mechanisms in the cell structure of a 3D printed material, without the need for assembly. However, their design is highly challenging. A mechanism consists of many cells that are interconnected and impose constraints on each other. This leads to unobvious and non-linear behavior of the mechanism, which impedes user design. In this work, we investigate the underlying topological constraints of such cell structures and their influence on the resulting mechanism. Based on these findings, we contribute a computational design tool that automatically creates a metamaterial mechanism from user-defined motion paths. This tool is only feasible because our novel abstract representation of the global constraints highly reduces the search space of possible cell arrangements.
Research Questions / Practical Problems
Question signals indexed for this paper.
- 60%
Towards Ultra Personalized 4D Printed Shoes
CHI '18· Shape-Changing Interfaces & Soft Robotic Materials +1
- 60%
The Making of Performativity in Designing [with] Smart Material Composites
CHI '18· Shape-Changing Interfaces & Soft Robotic Materials +1
- 60%
A-line: 4D Printing Morphing Linear Composite Structures
CHI '19· Shape-Changing Interfaces & Soft Robotic Materials +1
- 60%
CurveBoards: Integrating Breadboards into Physical Objects to Prototype Function in the Context of Form
CHI '20· Circuit Making & Hardware Prototyping +1
- 60%
Engineering Multifunctional Spacer Fabrics Through Machine Knitting
CHI '21· Shape-Changing Interfaces & Soft Robotic Materials +1
- 60%
ShrinCage: 4D Printing Accessories that Self-Adapt
CHI '21· Shape-Changing Interfaces & Soft Robotic Materials +1
- 60%
ElectriPop: Low-Cost, Shape-Changing Displays Using Electrostatically Inflated Mylar Sheets
CHI '22· Shape-Changing Interfaces & Soft Robotic Materials +1
- 60%
Design, Mould, Grow!: A Fabrication Pipeline for Growing 3D Designs Using Myco-Materials
CHI '23· Shape-Changing Materials & 4D Printing +1
- 60%
EpoMemory: Multi-state Shape Memory for Programmable Morphing Interfaces
CHI '23· Shape-Changing Interfaces & Soft Robotic Materials +1
- 60%
Thermotion: Design and fabrication of thermofluidic composites for animation effects on object surfaces
CHI '23· Shape-Changing Interfaces & Soft Robotic Materials +1
Based on Jaccard similarity of research subtopics & professions (≥60%)