ShakeSense: An Electrotactile System to Simulate Shaking a Container with Fluid Contents
Zhenxuan He, Yulin Jin, Yiyang Luo, Shengsheng Jiang, Ruikai Liang, Xiaowei He, Hongnan Lin, Teng Han, Feng Tian
Abstract
Shaking a cup of wine or other fluids in virtual environments is engaging but has been limited by challenges in delivering real-time haptic feedback for liquid collisions. ShakeSense is a haptic rendering system that integrates electrotactile stimulation with physics-based simulation to deliver immersive feedback for liquid dynamics in handheld containers. It employs a high-density electrode array to deliver dynamic tactile sensations, conveying friction and pressure changes on the user’s fingerpad. A dedicated end-to-end pipeline computes fingerpad forces from liquid-container-finger interactions, ensuring feedback aligns with natural fluid movement. Two studies evaluated ShakeSense’s performance and user perception. Study 1 showed that electrotactile patterns were distinguishable across directions, and synchronizing container movement with stimulation enhanced perceived force changes. Study 2 demonstrated that ShakeSense effectively simulated liquid motion, capturing multidimensional, coordinated interactions, and outperformed conventional Center-of-Mass approaches. Overall, ShakeSense provides clear, fine-grained tactile feedback for fluid interactions.
Ask about this paper
Ask your agent about it.
Lune has read the top-tier papers around this one, so every answer names the papers it rests on.
Your agent calls
Lunesearch_papers
Free to start. No credit card required.
Terminal
Install the CLIlune papers get fd4599f7-7317-4e6c-b1d9-368abc073b01Related papers
- Tactile rendering based on skin stress optimizationMickeal Verschoor, Dan Casas, Miguel A. OtaduySIGGRAPH 2020 · 18 citations
- GroundFlow: Liquid-based Haptics for Simulating Fluid on the Ground in Virtual RealityPing-Hsuan Han, Tzu-Hua Wang, Chien-Hsing ChouIEEE VR 2023 · 19 citations
- Double-Sided Tactile Interactions for Grasping in Virtual RealityArata Jingu, Anusha Withana, Jürgen SteimleUIST 2023 · 12 citations
- Implementation and Evaluation of Touch-based Interaction Using Electrovibration Haptic Feedback in Virtual EnvironmentsLu Zhao, Yue Liu, Dejiang Ye, Zhuoluo Ma et al.IEEE VR 2020 · 3 citations
- Touch&Fold: A Foldable Haptic Actuator for Rendering Touch in Mixed RealityShan-Yuan Teng, Pengyu Li, Romain Nith, Joshua Fonseca et al.CHI 2021 · 67 citations
