Improving the Design and Performance of MQ-9 Aircraft to Provide Pervasive High-Altitude Maritime Protection Capability

Due to emerging strategic demands, this article presents a comprehensive conceptual design investigation into enhancing the MQ-9A Uncrewed Aerial Vehicle (UAV). Motivated by the need for persistent long-range protection and surveillance capabilities, the research study proposes three primary modifications to create an aircraft titled the MQ-9X Raven. First, the existing turboprop engine was replaced with the widely used Williams FJ44-4A turbofan for reduced fuel consumption and excess power at 50,000 ft, with a range of approximately 8000 nm. Second, the wing design was updated with a 79 ft wing for a greater aspect ratio and a new LRN1015 airfoil to enable high-altitude, long-endurance standoff of around 24 h. Third and finally, the conceptual redesign included integration of a releasable store for maritime interdiction (AGM-184). The project follows a rigorous methodology beginning with a redefinition of mission requirements, aerodynamic, thrust, and stability analysis, and then verification with flight simulation, computational fluid dynamics, and wind tunnel experiments. Our analysis shows the MQ-9X Raven is highly suitable for the task of pervasive high-altitude standoff maritime protection.

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Publication Details

Journal
Aerospace
Published
2025-12-31
DOI
https://doi.org/10.3390/aerospace13010044
Primary Topic
Aerospace and Aviation Technology
Type
article
Field-Weighted Citation Impact
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article

Improving the Design and Performance of MQ-9 Aircraft to Provide Pervasive High-Altitude Maritime Protection Capability

Malcolm G. Tutty, Keith Joiner, Keirin Joyce, Jackson Tenhave et al.
Aerospace
Aerospace and Aviation Technology
article

Improving the Design and Performance of MQ-9 Aircraft to Provide Pervasive High-Altitude Maritime Protection Capability

Malcolm G. Tutty, Keith Joiner, Keirin Joyce, Jackson Tenhave, Patrick Dunstone, Alan Reitsma, Rishabh Tenneti, Lachlan W. Medway, Nicholas O’Neill
article en

Abstract

Due to emerging strategic demands, this article presents a comprehensive conceptual design investigation into enhancing the MQ-9A Uncrewed Aerial Vehicle (UAV). Motivated by the need for persistent long-range protection and surveillance capabilities, the research study proposes three primary modifications to create an aircraft titled the MQ-9X Raven. First, the existing turboprop engine was replaced with the widely used Williams FJ44-4A turbofan for reduced fuel consumption and excess power at 50,000 ft, with a range of approximately 8000 nm. Second, the wing design was updated with a 79 ft wing for a greater aspect ratio and a new LRN1015 airfoil to enable high-altitude, long-endurance standoff of around 24 h. Third and finally, the conceptual redesign included integration of a releasable store for maritime interdiction (AGM-184). The project follows a rigorous methodology beginning with a redefinition of mission requirements, aerodynamic, thrust, and stability analysis, and then verification with flight simulation, computational fluid dynamics, and wind tunnel experiments. Our analysis shows the MQ-9X Raven is highly suitable for the task of pervasive high-altitude standoff maritime protection.

AerospaceVol. 13(1)
Australian Defence Force Academy (AU)
Openalex Percentile: Top 20%
Aerospace and Aviation Technology
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