Optimal Action-based or User Prediction-based Haptic Guidance: Can You Do Even Better?
Hee-Seung Moon, Jiwon Seo
Abstract
The recently advanced robotics technology enables robots to assist users in their daily lives. Haptic guidance (HG) improves users’ task performance through physical interaction between robots and users. It can be classified into optimal action-based HG (OAHG), which assists users with an optimal action, and user prediction-based HG (UPHG), which assists users with their next predicted action. This study aims to understand the difference between OAHG and UPHG and propose a combined HG (CombHG) that achieves optimal performance by complementing each HG type, which has important implications for HG design. We propose implementation methods for each HG type using deep learning-based approaches. A user study (n=20) in a haptic task environment indicated that UPHG induces better subjective evaluations, such as naturalness and comfort, than OAHG. In addition, the CombHG that we proposed further decreases the disagreement between the user intention and HG, without reducing the objective and subjective scores.
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Cited by top-tier papers2
- Speeding up Inference with User Simulators throughPolicy ModulationHee-Seung Moon, Seungwon Do, Wonjae Kim, Jiwon Seo et al.CHI 2022 · 15 citations
- Real-time 3D Target Inference via Biomechanical SimulationHee-Seung Moon, Yi-Chi Liao, Chenyu Li, Byungjoo Lee et al.CHI 2024 · 15 citations
Builds on2
- Bot or not? User Perceptions of Player Substitution with Deep Player Behavior ModelsJohannes Pfau, Jan David Smeddinck, Ioannis Bikas, Rainer MalakaCHI 2020 · 18 citations
- Phasking on Paper: Accessing a Continuum of PHysically Assisted SKetchINGSoheil Kianzad, Yuxiang Huang, Robert Xiao, Karon E. MacLeanCHI 2020 · 17 citations
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