Drone Operator Workload Analysis for Integration onto a Naval Vessel

Abstract The United States Navy intends to dramatically increase its uncrewed aerial system (UAS) footprint in the future. However, there is limited data available that analyzes drone operator workload when operating in the unsteady air flow region behind the superstructure of naval vessels. The United States Naval Academy operates a fleet of 108 foot vessels for the training of future naval officers. One of these vessels has been modified to simulate a guided missile destroyer (with the addition of a flight deck and observation booth). This, combined with the USNA custom build research UAS, affords a unique opportunity to research drone integration onto a naval vessel. This paper documents two years worth of research into operating small UASs in and around naval vessels while they are underway. It analyzes standard and proposed approach paths on during different headwind conditions using traditional flight test techniques. While our available data did not contain enough data points to reach a statistically significant threshold, we did not see a major difference between the three approach paths. However, this research proposes a possible method to aid test conductors in risk reduction during flight test of these highly automated vehicles.

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Publication Details

Journal
Journal of Intelligent & Robotic Systems
Published
2025-04-05
DOI
https://doi.org/10.1007/s10846-025-02252-1
Citations
1
Primary Topic
Maritime Navigation and Safety
Type
article
Field-Weighted Citation Impact
1.15

Funders

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article

Drone Operator Workload Analysis for Integration onto a Naval Vessel

Allison Webster-Giddings, Donald H. Costello, Nicholas Bostock, Maneesha Wickramasuriya
1 citations
Journal of Intelligent & Robotic Systems
Maritime Navigation and Safety
1.15
article

Drone Operator Workload Analysis for Integration onto a Naval Vessel

Allison Webster-Giddings, Donald H. Costello, Nicholas Bostock, Maneesha Wickramasuriya
article en
1 citations

Abstract

Abstract The United States Navy intends to dramatically increase its uncrewed aerial system (UAS) footprint in the future. However, there is limited data available that analyzes drone operator workload when operating in the unsteady air flow region behind the superstructure of naval vessels. The United States Naval Academy operates a fleet of 108 foot vessels for the training of future naval officers. One of these vessels has been modified to simulate a guided missile destroyer (with the addition of a flight deck and observation booth). This, combined with the USNA custom build research UAS, affords a unique opportunity to research drone integration onto a naval vessel. This paper documents two years worth of research into operating small UASs in and around naval vessels while they are underway. It analyzes standard and proposed approach paths on during different headwind conditions using traditional flight test techniques. While our available data did not contain enough data points to reach a statistically significant threshold, we did not see a major difference between the three approach paths. However, this research proposes a possible method to aid test conductors in risk reduction during flight test of these highly automated vehicles.

Journal of Intelligent & Robotic SystemsVol. 111(2)
University of Baghdad (IQ), United States Naval Academy (US), George Washington University (US), Matrix Research (United States) (US)
Office of Naval Research Global
Openalex Percentile: Top 25%
Maritime Navigation and Safety
1.15
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Drone Operator Workload Analysis for Integration onto a Naval Vessel — Allison Webster-Giddings, Donald H. Costello, et al. · Journal of Intelligent & Robotic Systems (2025) | TGRS Research Map | TGRS