Aerospace and Ocean Systems Lab

The nature of the threat to deployed US national security platforms is changing: as we pivot from a more permissive counterterrorism environment of the last decade to the denied areas of nation-states for the coming decades, we face new challenges in every domain of war, especially the electromagnetic spectrum. Specifically, the new adversary is technologically agile and poses a larger threat to US command and control infrastructure.

To overcome these constraints, the US needs flexible, autonomous platforms with more ability to locally process sensor data and make tactical decisions. These platforms must take advantage of the latest technological capabilities for airborne and spaceborne systems. Otherwise, as the number and complexity of adversary systems grows, the legacy one-for-one acquisition approach ‐ i.e. building a platform to counter a specific enemy platform ‐ and the reliance on high-bandwidth data links supporting remote sensor data processing and tactical decision making will prove fundamentally unsustainable.

Amidst these challenges, Moore’s law provides opportunities for not only greater resiliency and efficiency of deployed systems against the new adversary, but also a class of new RF-based capability for such systems in all domains. Efficiency is achieved at two scales: first at the engagement level by a single platform conducting a broad variety of missions, and second at the payload level by optimizing resources onboard according to mission priorities.

Core Capabilities

The Hume Center's core expertise lies at the intersection of mission platforms and mission payloads. Emphasis of research focuses on the ability to perform analyze sensor inputs onboard in low-SWAP, heterogeneous computing environments, such that the payload can autonomously identify objects in its environment; the ability for high-level mission priorities to drive low-level technical processes in real time with the human out of the tactical loop but rather operating in a strategic control role; and the ability to manage payload resources according to mission goals in a distributed manner across several self-organizing nodes.

Core research in these areas include:

  • national security applications of smallsats;
  • mission-oriented satellite constellation design;
  • spacecraft bus engineering and orbital dynamics;
  • advanced lightweight aerospace structures;
  • airborne autonomous vehicles;
  • command, control, and communications for aerospace systems;
  • cognitive mission management;
  • joint optimization of platform and payload scheduling;
  • engineering design for system payloads;
  • payload size, weight, and power constraints; and
  • advanced sensing technology



Black, Jonathan
Pitt, Jonathan
Associate Director

Department Personnel

Doyle, Daniel
Research Assistant Professor
Fowler, Michael
Research Scientist
Gilbert, John
Research Assistant Professor
Harding, Leon
Research Associate Professor
Kauffman, Justin
Research Assistant Professor
Kusterer, David
Computer Engineer
Leffke, Zachary
Research Associate
McElroy, Tracy
Project Manager
Ogorzalek, Jeremy
Research Associate
Rowe, Sonya
Senior Program Manager
Schroeder, Kevin
Research Scientist
Sterne, Kevin
Research Associate

Total: 14 personnel