Evaluation of Predictive Display for Teleoperated Driving Using CARLA Simulator

Before the world-wide deployment of autonomous vehicles, it is essential to implement intermediate solutions with partial autonomy. One such solution is the use of vehicle teleoperation, the act of controlling a vehicle from a distance. In real time applications of teleoperation, it is often pertinent to use augmented reality components within the teleoperator view, which are referred to as a predictive display. In this work, we evaluate our predictive display method, which is a guiding path based on the free space in the environment. The path is generated based on our Dual Transformer Network (DTNet), which uses both object detection and lane semantic segmentation to define the free space in the environment. While the model has previously performed well on image data, it is necessary to observe its accuracy in the presence of time delay and packet loss, to assess its performance in a real-time setting. Thus, in this work, we use CARLA simulator to compare the detected free space on the teleoperator side to the true free space on the vehicle side across different values of time delay and packet loss. Under optimal network conditions, our model yielded a remarkable 87.9% DSC score and 81.3% IoU score. Defining our minimum performance threshold as 80% DSC and 70% IoU, we conclude that our model can effectively mitigate the challenges of time delay below 100ms and packet loss below 1%, both of which represent substantial tolerances.

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Publication Details

Published
2024-10-14
DOI
https://doi.org/10.1109/iros58592.2024.10801533
Citations
1
Primary Topic
Virtual Reality Applications and Impacts
Type
article
Field-Weighted Citation Impact
0.37
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Evaluation of Predictive Display for Teleoperated Driving Using CARLA Simulator

Bilal Hassan, Peng‐Yong Kong, Jorge Dias, Majid Khonji et al.
1 citations
Virtual Reality Applications and Impacts
0.37
article

Evaluation of Predictive Display for Teleoperated Driving Using CARLA Simulator

Bilal Hassan, Peng‐Yong Kong, Jorge Dias, Majid Khonji, Fatima Kashwani
article en
1 citations

Abstract

Before the world-wide deployment of autonomous vehicles, it is essential to implement intermediate solutions with partial autonomy. One such solution is the use of vehicle teleoperation, the act of controlling a vehicle from a distance. In real time applications of teleoperation, it is often pertinent to use augmented reality components within the teleoperator view, which are referred to as a predictive display. In this work, we evaluate our predictive display method, which is a guiding path based on the free space in the environment. The path is generated based on our Dual Transformer Network (DTNet), which uses both object detection and lane semantic segmentation to define the free space in the environment. While the model has previously performed well on image data, it is necessary to observe its accuracy in the presence of time delay and packet loss, to assess its performance in a real-time setting. Thus, in this work, we use CARLA simulator to compare the detected free space on the teleoperator side to the true free space on the vehicle side across different values of time delay and packet loss. Under optimal network conditions, our model yielded a remarkable 87.9% DSC score and 81.3% IoU score. Defining our minimum performance threshold as 80% DSC and 70% IoU, we conclude that our model can effectively mitigate the challenges of time delay below 100ms and packet loss below 1%, both of which represent substantial tolerances.

Khalifa University of Science and Technology (AE)
Openalex Percentile: Top 36%
Virtual Reality Applications and Impacts
0.37
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