SBIR-STTR Award

An Autonomous Fixed-Wing UAV Shipboard Recovery System
Award last edited on: 10/31/2012

Sponsored Program
SBIR
Awarding Agency
DOD : Navy
Total Award Amount
$3,135,581
Award Phase
2
Solicitation Topic Code
N03-058
Principal Investigator
David S Duggan

Company Information

Geneva Aerospace Inc

4240 International Parkway Suite 100
Carrollton, TX 75007
   (469) 568-2376
   dduggan@genevaaerospace.com
   www.genaero.com
Location: Single
Congr. District: 24
County: Denton

Phase I

Contract Number: N00024-03-C-4103
Start Date: 00/00/00    Completed: 00/00/00
Phase I year
2003
Phase I Amount
$69,756
Among the many autonomous guidance and control challenges facing DoD and industry today is the safe, reliable shipboard recovery of fixed wing UAVs. Leveraging our autonomous landing research conducted for the Air Force Research Laboratory, Geneva Aerospace proposes an autonomous shipboard recovery solution using a hybrid control system structure that combines trajectory synthesis guidance with line-of-sight rate guidance to provide precision control to recovery using an integrated GPS aided relative navigation solution. Employing the principals of terminal homing guidance, the design is ideally suited to facilitate recovery on a moving ship deck. The concept will take advantage of the precision positioning offered by the relative navigation solution and precision path regulation offered by the hybrid control system to capture the UAV via a mechanically simple cable arresting system, enabling recovery on very small deck platforms. We will demonstrate that the recent technology advances in miniaturized GPS receivers, micro-electromechanical sensors (MEMS), spread-spectrum communications transceivers, and single-board computers all combine to offer a small, light-weight, robust, and affordable hardware architecture to address the shipboard recovery problem. When integrated with the proposed guidance, navigation, and control software, this hardware architecture will provide an excellent integrated system solution with a very small logistics footprint. Benefits According to the Office of the Secretary of Defense (OSD) UAV roadmap, the US DoD will invest over $4 billion in UAVs over the next decade. This will include a substantial investment in autonomous control systems technologies that significantly enhance the operational utility of UAVs by allowing a few, or even a single, operator(s) with minimal training to effectively manage and control groups of vehicles. The introduction of a lightweight, safe, and robust precision shipboard recovery system for fixed wing UAVs will provide a much needed capability that will enable the US maritime forces to take advantage of the many systems that will be introduced over the next decade. Proven, reliable autonomous landing technologies could also benefit the general aviation industry. Keywords UAV, Shipboard Recovery, Guidance and Control, Hybrid Control, Autonomous Landing, Relative Navigation, Proportional Navigation, Variable Autonomy Control

Phase II

Contract Number: N68335-05-C-0053
Start Date: 11/17/2004    Completed: 11/17/2006
Phase II year
2005
(last award dollars: 2009)
Phase II Amount
$3,065,825

Among the many autonomous guidance and control challenges facing DoD and industry today is the safe, reliable shipboard recovery of fixed wing UAVs. Leveraging our autonomous landing research conducted for the Air Force Research Laboratory and NAVSEA, Geneva Aerospace proposes an autonomous shipboard recovery solution using a hybrid control system structure that combines trajectory synthesis guidance with line-of-sight rate guidance to provide precision control to recovery using an integrated GPS aided relative navigation solution. Employing the principals of terminal homing guidance, the design is ideally suited to facilitate recovery on a moving ship deck. The concept will take advantage of the precision positioning offered by the relative navigation solution and precision path regulation offered by the hybrid control system to enable recovery on very small deck platforms. We will demonstrate that the recent technology advances in miniaturized GPS receivers, micro-electromechanical sensors (MEMS), spread-spectrum communications transceivers, and single-board computers all combine to offer a small, light-weight, reliable and affordable hardware architecture to address the shipboard recovery problem. When integrated with the proposed guidance, navigation, and control software, this hardware architecture will provide an excellent integrated system solution with a very small logistics footprint.

Keywords:
UAV, AUTONOMOUS LANDING, SHIPBOARD RECOVERY, RELATIVE NAVIGATION, AUTONOMOUS UAV CONTROL, GUIDANCE AND CONTROL, HYBRID CONTROL