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A low-cost visual inertial odometry system for underwater vehicles

A low-cost visual inertial odometry system for underwater vehicles
A low-cost visual inertial odometry system for underwater vehicles

The localization is a crucial issue for underwater vehicles. In the paper, a lightweight visual-inertial odometry is proposed. With dual inertial sensors giving the information of acceleration and attitude, an optical camera providing the seabed images where feature points are tracked by an optical flow algorithm, linear motion of the vehicle can be obtained by computing coordinate transformations and in the fusion section, the control input is also considered. The computational complexity of the proposed method is reduced dramatically relative to other methodologies, and the optical flow algorithm can allow the system to work in poor context environment conditions. The results evaluated by practical experiments show that the method is an effective, low-cost solution for underwater localization.

Sensor fusion, Underwater vehicles, Visual-inertial odometry
139-143
IEEE
Xu, Zhizun
48299771-f38a-45d6-8700-7f7bab3edcf7
Haroutunian, Maryam
f519154e-664f-40a4-9833-38c5f17f31d5
Murphy, Alan J.
8e021dad-0c60-446b-a14e-cddd09d44626
Neasham, Jeff
66bcaecc-b93f-416f-8f2c-6a1c5608d892
Norman, Rose
6d2518aa-ece8-498f-82dc-dee5ec7b1b37
Xu, Zhizun
48299771-f38a-45d6-8700-7f7bab3edcf7
Haroutunian, Maryam
f519154e-664f-40a4-9833-38c5f17f31d5
Murphy, Alan J.
8e021dad-0c60-446b-a14e-cddd09d44626
Neasham, Jeff
66bcaecc-b93f-416f-8f2c-6a1c5608d892
Norman, Rose
6d2518aa-ece8-498f-82dc-dee5ec7b1b37

Xu, Zhizun, Haroutunian, Maryam, Murphy, Alan J., Neasham, Jeff and Norman, Rose (2022) A low-cost visual inertial odometry system for underwater vehicles. In Proceedings of the 2021 4th International Conference on Mechatronics, Robotics and Automation, ICMRA. IEEE. pp. 139-143 . (doi:10.1109/ICMRA53481.2021.9675540).

Record type: Conference or Workshop Item (Paper)

Abstract

The localization is a crucial issue for underwater vehicles. In the paper, a lightweight visual-inertial odometry is proposed. With dual inertial sensors giving the information of acceleration and attitude, an optical camera providing the seabed images where feature points are tracked by an optical flow algorithm, linear motion of the vehicle can be obtained by computing coordinate transformations and in the fusion section, the control input is also considered. The computational complexity of the proposed method is reduced dramatically relative to other methodologies, and the optical flow algorithm can allow the system to work in poor context environment conditions. The results evaluated by practical experiments show that the method is an effective, low-cost solution for underwater localization.

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More information

Published date: 14 January 2022
Additional Information: Funding Information: The authors would like to acknowledge the generous support of John and Vivien Prime in funding aspects of this work.
Venue - Dates: 4th International Conference on Mechatronics, Robotics and Automation, ICMRA 2021, , Virtual, Zhanjiang, China, 2021-10-22 - 2021-10-24
Keywords: Sensor fusion, Underwater vehicles, Visual-inertial odometry

Identifiers

Local EPrints ID: 484084
URI: http://eprints.soton.ac.uk/id/eprint/484084
PURE UUID: e240c7ba-6122-49cb-89da-90501f2ebdf2

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Date deposited: 09 Nov 2023 18:15
Last modified: 17 Mar 2024 13:35

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Contributors

Author: Zhizun Xu
Author: Maryam Haroutunian
Author: Alan J. Murphy
Author: Jeff Neasham
Author: Rose Norman

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