Forward to the Future: A Deep Learning‐based Approach to Mitigate Control Transmission Delay of Teleoperated Driving in Unstructured Environments

ABSTRACT Teleoperated driving is a leading approach for operating unmanned ground vehicles in unstructured environments, where driving stability is crucial. However, time delays may compromise this stability. In this letter, we propose a computational delay compensation method based on deep learning models to address the control transmission delay. Initially, we collect teleoperated driving data from simulated unstructured environments and then design a delay compensation method utilizing time‐series forecasting models. This method generates future control inputs equivalent to the delayed time steps. Our evaluation demonstrates the possibility of our delay compensation method for teleoperated driving in unstructured environments.

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Publication Details

Journal
Electronics Letters
Published
2025-01-01
DOI
https://doi.org/10.1049/ell2.70338
Primary Topic
Teleoperation and Haptic Systems
Type
article
Field-Weighted Citation Impact
0.00

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article

Forward to the Future: A Deep Learning‐based Approach to Mitigate Control Transmission Delay of Teleoperated Driving in Unstructured Environments

Hyeonggeun Yun
Electronics Letters
Teleoperation and Haptic Systems
article

Forward to the Future: A Deep Learning‐based Approach to Mitigate Control Transmission Delay of Teleoperated Driving in Unstructured Environments

Hyeonggeun Yun
article en

Abstract

ABSTRACT Teleoperated driving is a leading approach for operating unmanned ground vehicles in unstructured environments, where driving stability is crucial. However, time delays may compromise this stability. In this letter, we propose a computational delay compensation method based on deep learning models to address the control transmission delay. Initially, we collect teleoperated driving data from simulated unstructured environments and then design a delay compensation method utilizing time‐series forecasting models. This method generates future control inputs equivalent to the delayed time steps. Our evaluation demonstrates the possibility of our delay compensation method for teleoperated driving in unstructured environments.

Electronics LettersVol. 61(1)
Agency for Defense Development (KR)
Agency for Defense Development
Openalex Percentile: Top 86%
Teleoperation and Haptic Systems
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