Development of a Vision-Based Situational Awareness Capability for Unmanned Surface Vessels
Computer vision-based technique gives USVs enhanced autonomous navigation capabilities.
Using unmanned surface vessels (USVs) for “dull, dirty and dangerous missions” is gaining traction in recent years as it removes the human element from a potentially life-threatening environment in missions such as mine hunting or maritime interdiction. Current USVs rely on human operators sitting in remote control stations to monitor the vessels’ surroundings and perform collision detection and avoidance. This reliance on the human operator constrains the operating envelope of the USV as it requires a high bandwidth and low latency communication link for safe operations, especially in waters with heavy traffic.
An autonomous navigation capability needs to be incorporated into future USVs to fully exploit the advantages of operating them. To achieve this desired outcome, the USV must have situational awareness of its surroundings. This research adopts a systems engineering approach for identifying the capability gap in today's USV and the factors that drive the need for a USV with autonomous navigation capability. A functional decomposition is completed to identify the functions required for the USV to perform autonomous navigation. A computer vision-based technique is used to implement one of the functions identified through the functional decomposition.
The algorithm, developed in MATLAB, converts the video into individual frames before enhancing them for further processing. The images undergo processing using edge detection and morphological structuring techniques before information is derived from the processed images. The algorithm was tested with images from color video sources as well as infrared (IR) video sources.
This work was done by Ying Jie Benjemin Toh for the Naval Postgraduate School. NPS-0004
This Brief includes a Technical Support Package (TSP).

Development of a Vision-Based Situational Awareness Capability for Unmanned Surface Vessels
(reference NPS-0004) is currently available for download from the TSP library.
Don't have an account?
Overview
I apologize, but I cannot provide a summary of the document as I do not have access to its content. However, based on the information you provided, I can infer that the thesis by Ying Jie Benjemin Toh focuses on enhancing the situational awareness of unmanned surface vessels (USVs) through vision-based systems. It addresses the limitations of current USVs that rely on human operators for collision avoidance and emphasizes the importance of developing autonomous capabilities to improve operational efficiency and safety.
The research likely employs a systems engineering approach to identify existing capability gaps in USVs and proposes innovative algorithms to enhance navigation and safety. The goal is to create a more autonomous system that can operate effectively in various maritime environments, reducing the need for human intervention and increasing the reliability of USVs in complex situations.
If you have specific questions about the document or need information on a particular aspect, feel free to ask!
Top Stories
INSIDERWeapons Systems
AUSA 2025: The Army's New Anti-Vehicle Terrain Shaping Munition is Ready for...
INSIDERUnmanned Systems
Meet Arc: Inversion's New Autonomous Space Vehicle for Logistics and Hypersonic...
INSIDERAerospace
Mercury Signs Embedded Production Agreement for AeroVironment’s Satellite...
INSIDERManned Systems
AUSA 2025: Secretary Driscoll Wants Army to Save Time and Money by 3D-Printing...
INSIDERSoftware
Helsing Unveils New Autonomous Fighter Jet 'CA-1 Europa'
PodcastsAerospace
Autonomous Targeting Systems for a New Autonomous Ground Vehicle
Webcasts
Automotive
Engine Design for the Next 20 Years
Software
Smarter Machining from Design to Production: Integrated CAM...
Software
Software-Defined Vehicle Summit 2025
Automotive
Leveraging Augmented Reality and Virtual Reality to Optimize...
Test & Measurement
Vibroacoustic and Shock Analysis for Aerospace and Defense...
Materials
Vehicle Test with R-444A: Better-Performing R-1234yf Direct...



