Prospects for Force Feedback Technology Development in Robotic System Interfaces

The article presents a comprehensive analysis of developing multimodal interface technologies, focusing on force feedback systems for human-machine interaction in robotics, teleoperation, and virtual reality environments; emphasizes the significance of multimodality in reducing the operator’s cognitive load and enhancing the presence in remote or virtual settings. The work focuses on critical ergonomic challenges, including psychophysiological stresses, perception difficulties, latency issues, and safety concerns; reviews current methodologies and technologies, such as adaptive control algorithms, novel tactile devices, and their applications in medical simulators and VR systems. The authors identify key obstacles hindering widespread adoption (latency, hardware limitations), along with promising directions for advancement, including artificial intelligence integration, hybrid multimodal system creation, and energy-efficient interface development utilizing smart materials. The ultimate design goal is to develop an intuitive, safe, and physically comfortable interface seamlessly integrated into the operator’s sensorimotor loop.

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Publication Details

Journal
Ergodesign
Published
2025-12-07
DOI
https://doi.org/10.30987/2658-4026-2025-4-510-520
Primary Topic
Tactile and Sensory Interactions
Type
article
Field-Weighted Citation Impact
0.00
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article

Prospects for Force Feedback Technology Development in Robotic System Interfaces

Ergodesign
Tactile and Sensory Interactions
article

Prospects for Force Feedback Technology Development in Robotic System Interfaces

article en

Abstract

The article presents a comprehensive analysis of developing multimodal interface technologies, focusing on force feedback systems for human-machine interaction in robotics, teleoperation, and virtual reality environments; emphasizes the significance of multimodality in reducing the operator’s cognitive load and enhancing the presence in remote or virtual settings. The work focuses on critical ergonomic challenges, including psychophysiological stresses, perception difficulties, latency issues, and safety concerns; reviews current methodologies and technologies, such as adaptive control algorithms, novel tactile devices, and their applications in medical simulators and VR systems. The authors identify key obstacles hindering widespread adoption (latency, hardware limitations), along with promising directions for advancement, including artificial intelligence integration, hybrid multimodal system creation, and energy-efficient interface development utilizing smart materials. The ultimate design goal is to develop an intuitive, safe, and physically comfortable interface seamlessly integrated into the operator’s sensorimotor loop.

ErgodesignVol. 2025(4)
St Petersburg University (RU), Peter the Great St. Petersburg Polytechnic University (RU), Russian State Scientific Center for Robotics and Technical Cybernetics (RU)
Openalex Percentile: Top 61%
Tactile and Sensory Interactions
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