Brooks A. Butler

I am a Postdoctoral Fellow at the University of California, Irvine, under the advisement of Professor Magnus Egerstedt, the Stacey Nicholas Dean of the Samueli School of Engineering. I am a participant in the Intelligence Community Postdoctoral Research Fellowship Program administered by Oak Ridge Institute for Science and Education (ORISE) through an interagency agreement between the U.S. Department of Energy (DOE) and the Office of the Director of National Intelligence (ODNI), focusing on applications for the Department of Homeland Security (DHS). I graduated from Purdue University in 2024, earning my Ph.D. in Electrical and Computer Engineering, where I worked with Professor Philip E. Paré to study safety guarantees for dynamic networked systems. 

When not performing research, I enjoy spending time with my wife and two kids, playing and composing music on the piano and guitar, singing, and playing games with friends.

Research Keywords

Algorithmic altruism, collaborative control, networked dynamic systems, safety-critical control, machine learning, optimization, robotics, epidemic processes, autonomous vehicles, signal processing, and social modeling are a few of my interests.

Education

Here is a copy of my full CV.

A visual overview of how theoretical foundations lead to research applications.

Research Interests

Collaboration is a useful principle observed in nature, where collective intelligence can enable species to make superior decisions in complex ecosystems. Contrasting with coordination, where individuals can share information to achieve individual or group goals, true collaboration implies a collective capability greater than the sum of independent efforts. However, implementing collaboration in man-made autonomous systems can prove exceptionally difficult, with challenges including communication limitations, dynamically changing environments, and scalability issues. As our technological ecosystems grow in complexity, including diverse multi-agent systems such as robotic swarms, epidemic processes, and other critical cyber-physical systems, our need for explainable frameworks that can facilitate such collaboration reliably and safely increases.

With an emphasis on networked control systems and safety-critical control, my research focuses on bridging the gap between theory and application. I strive for research that advances our basic understanding of core concepts that can be applied across a rich class of systems and domains, with tangible and relevant results. Thus, my past and current work include applications across multiple domains that build toward the goal of designing explainable safe and collaborative control frameworks for dynamic and networked autonomous systems.