Use the Force Picker, Luke: Space-Efficient Value Input on Force-Sensitive Mobile Touchscreens
Honorable MentionAuthors
Picking values from long ordered lists, such as when setting a date or time, is a common task on smartphones. However, the system pickers and tables used for this require significant screen space for spinning and dragging, covering other information or pushing it off-screen. The Force Picker reduces this footprint by letting users increase and decrease values over a wide range using force touch for rate-based control. However, changing input direction this way is difficult. We propose three techniques to address this. With our best candidate, Thumb-Roll, the Force Picker lets untrained users achieve similar accuracy as a standard picker, albeit less quickly. Shrinking it to a single table row, 20% of the iOS picker height, slightly affects completion time, but not accuracy. Intriguingly, after 70 minutes of training, users were significantly faster with this minimized Thumb-Roll Picker compared to the standard picker, at the same accuracy and only 6% of the gesture footprint. We close with application examples.
Research Questions / Practical Problems
Question signals indexed for this paper.
- 100%
Breaking the Tracking: Enabling Weight Perception using Perceivable Tracking Offsets
CHI '18· Force Feedback & Pseudo-Haptic Weight
- 100%
ForceBoard: Subtle Text Entry Leveraging Pressure
CHI '18· Force Feedback & Pseudo-Haptic Weight
- 100%
ElastOscillation: 3D Multilevel Force Feedback for Damped Oscillation on VR Controllers
CHI '20· Force Feedback & Pseudo-Haptic Weight
- 100%
PalmBoard: Leveraging Implicit Touch Pressure in Statistical Decoding for Indirect Text Entry
CHI '20· Force Feedback & Pseudo-Haptic Weight
- 100%
T-Force: Exploring the Use of Typing Force for Three State Virtual Keyboards
CHI '23· Force Feedback & Pseudo-Haptic Weight
- 100%
transPAF: Rendering Omnidirectional Impact Feedback with Dynamic Point of Application of Force All Round a Controller
CHI '23· Force Feedback & Pseudo-Haptic Weight
- 100%
MobileGravity: Mobile Simulation of a High Range of Weight in Virtual Reality
CHI '24· Force Feedback & Pseudo-Haptic Weight
- 100%
AirPush: A Pneumatic Wearable Haptic Device Providing Multi-Dimensional Force Feedback on a Fingertip
CHI '24· Force Feedback & Pseudo-Haptic Weight
- 100%
Motion-Coupled Asymmetric Vibration for Pseudo Force Rendering in Virtual Reality
CHI '25· Force Feedback & Pseudo-Haptic Weight
- 100%
Virtual Muscle Force: Communicating Kinesthetic Forces Through Pseudo-Haptic Feedback and Muscle Input
UIST '19· Force Feedback & Pseudo-Haptic Weight
Based on Jaccard similarity of research subtopics & professions (≥60%)