A-line: 4D Printing Morphing Linear Composite Structures
Authors
This paper presents A-line, a 4D printing system for designing and fabricating morphing three-dimensional shapes out of simple linear elements. In addition to the commonly known benefit of 4D printing to save printing time, printing materials, and packaging space, A-line also takes advantage of the unique properties of thin lines, including their suitability for compliant mechanisms and ability to travel through narrow spaces and self-deploy or self-lock on site. A-line integrates a method of bending angle control in up to eight directions for one printed line segment, using a single type of thermoplastic material. A software platform to support the design, simulation and tool path generation is developed to support the design and manufacturing of various A-line structures. Finally, the design space of A-line is explored through four application areas, including line sculpting, compliant mechanisms, self-deploying, and self-locking structures.
Research Questions / Practical Problems
Question signals indexed for this paper.
- 100%
Towards Ultra Personalized 4D Printed Shoes
CHI '18· Shape-Changing Interfaces & Soft Robotic Materials +1
- 100%
The Making of Performativity in Designing [with] Smart Material Composites
CHI '18· 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%)