poimo: Portable and Inflatable Mobility Devices Customizable for Personal Physical Characteristics
Authors
Despite the recent growth in popularity of personal mobility devices (e.g., e-scooters and e-skateboards), they still suffer from limited safety and narrow design form factors, due to their rigid structures. On the other hand, inflatable interfaces studied in human-computer interaction can achieve large volume change by simple inflation/deflation. Inflatable structure also offers soft and safe interaction owing to material compliance and diverse fabrication methods that lead to a wide range of forms and aesthetics. In this paper, we propose poimo, a new family of POrtable and Inflatable MObility devices, which consists of inflatable frames, inflatable wheels, and inflatable steering mechanisms made of a mass-manufacturable material called drop-stitch fabric. First, we defined the basic material properties of a drop-stitch inflatable structure that is sufficiently strong to carry a person while simultaneously allowing soft deformation and deflation for storage and portability. We then implemented an interactive design system that can scan the user’s desired riding posture to generate a customized personal mobility device and can add the user’s shape and color preferences. To demonstrate the custom-design capability and mobility, we designed several 3D models using our system and built physical samples for two basic templates: a motorcycle and a wheelchair. Finally, we conducted an online user study to examine the usability of the design system and share lessons learned for further improvements in the design and fabrication of poimo.
Research Questions / Practical Problems
Question signals indexed for this paper.
- 80%
Metamaterial Textures
CHI '18· Shape-Changing Interfaces & Soft Robotic Materials +1
- 67%
Exquisite Fabrication: Exploring Turn-Taking Between Designers and Digital Fabrication Machines
CHI '21· Shape-Changing Interfaces & Soft Robotic Materials +2
- 67%
BubbleTex: Designing Heterogenous Wettable Areas for Carbonation Bubble Patterns on Surfaces
CHI '23· Shape-Changing Interfaces & Soft Robotic Materials +1
- 67%
Wearable Material Properties: Passive Wearable Microstructures as Adaptable Interfaces for the Physical Environment
CHI '25· Haptic Wearables +2
- 67%
EmbroForm: Digital Fabrication of Soft Freeform Objects with Machine Embroidered Pull-up Strings
CHI '26· Shape-Changing Interfaces & Soft Robotic Materials +2
- 67%
SewFab: Sewing Inspired Fabrication on an Unmodified FDM 3D Printer Leveraging Intermittent Human Assistance
CHI '26· Shape-Changing Interfaces & Soft Robotic Materials +2
- 67%
AdVANcing Design: Customizing Spaces for Vanlife
AutoUI '23· Shape-Changing Interfaces & Soft Robotic Materials +2
- 60%
Waxpaper Actuator: Sequentially and Conditionally Programmable Wax Paper for Morphing Interfaces
CHI '24· Shape-Changing Interfaces & Soft Robotic Materials
- 60%
Electriflow: Soft Electrohydraulic Building Blocks for Prototyping Shape-changing Interfaces
DIS '21· Shape-Changing Interfaces & Soft Robotic Materials
- 60%
Photo-Chromeleon: Re-Programmable Multi-Color Textures Using Photochromic Dyes
UIST '19· Shape-Changing Interfaces & Soft Robotic Materials
Based on Jaccard similarity of research subtopics & professions (≥60%)