Autonomy for Large Teams of Collaborating Unmanned Systems

What Is It?

This basic and applied research effort is developing technologies to manage large numbers of heterogeneous autonomous systems at a mission rather than vehicle level.

How Does It Work?

The basic research efforts include biologically and physics-inspired team & coalition formation of heterogeneous unmanned systems for ISR of large, complex areas, and design and prediction of swarm behaviors.

The applied research effort includes distributed approaches for control of small teams of unmanned air and sea systems.

What Will It Accomplish?

This effort will support force protection and persistent surveillance of complex areas with a large number of highly heterogeneous platforms/sensors and a very small number of humans.

There is currently a wide range of research efforts examining the control of groups of unmanned vehicles to carry out cooperative or collaborative missions. However, many of the approaches used in these efforts are highly centralized, designed for a narrow set of requirements, and have significant scalability limitations.

Because of the threat that IEDs have posed to troops in Iraq, and the importance that urban and littoral operations have assumed in recent conflicts, unmanned systems are being rushed into service in large numbers. Current systems lack sufficient autonomy and require close human supervision. Moreover, there is very limited capability to share resources or use these systems collaboratively.

ONR’s effort in this area utilizes biological models of social and collaborative behavior by intelligent predators, as well as physics-based (potential fields) models for experimentation and development of principles and methodologies.

This research will enable autonomous systems to reliably maintain persistent surveillance and force protection of complex areas with many heterogeneous platforms/sensors and a small number of humans.

  • Ensuring that such technologies are scalable to large and complex areas is critical for operation in complex naval areas such as coastal areas, large ports, riverine, and urban environments.
  • Ensuring that humans can interact with large numbers of unmanned systems at the appropriate level of abstraction will be critical for ensuring that these systems are flexible and responsive for operational adaptation against unconventional threats by forward-deployed naval forces with limited manning.
  • Scalable, self-organizing, organizational structure/hierarchy appropriate to mission tasking (scalable relative to robustness, computational/communications requirements, ops tempo)
  • Dealing with intelligent adversaries. How swarms can be disrupted/defeated
  • Task allocation/assignment, planning, coordination & control for heterogeneous systems
  • Structuring of the on-board autonomy to balance multiple competing and conflicting performance metrics, and individual platform vs. group objectives. Automation of quickly evolving, complex, distributed systems
  • Airspace/Waterspace management to allow operation in close proximity to other manned and unmanned systems including crowded military and civilian areas
  • Rigorous mathematical methods and tools for predicting behaviors of large numbers of unmanned systems under realistic assumptions

Behzad Kamgar-Parsi
behzad.kamgarparsi@navy.mil
(703) 696-5754

Marc Steinberg
marc.steinberg@navy.mil
(703) 696-5115

Robert Brizzolara
robert.brizzolara@navy.mil
(703) 696-2597

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