I am an AI systems researcher and engineer who builds intelligent systems and gets them into production. Thirty years of leading technical teams from concept through build, test, and delivery: the U.S. Navy nuclear submarine force, industry engineering organizations, a tenured computer science professorship, twelve years of industrial research at PARC (the Palo Alto Research Center), and startup leadership.
Today I am Chief Scientist at Filuta AI, where I lead invention from research through shipped product for a document-intelligence platform that turns large, heterogeneous document collections into searchable knowledge, deployed in production. The lab's automated-planning research has produced peer-reviewed publications at KR, ICAPS, and IJCAI, plus two patent applications.
My career focus is interactive artificial intelligence, human-machine collaboration, and automated planning, delivered as systems used by real people. My current research interest is how engineering teams and engineering education change as AI shifts from tool to collaborator, and how to mentor engineers through that transition.
The record: 115 publications (h-index 24, ~3,200 citations), 16 patent families with 9 U.S. patents granted, more than $29M in externally sponsored research as PI or Co-PI from DARPA, NSF, NIH, and the Naval Research Laboratory, and 5 graduated PhD and MS thesis students, with doctoral graduates now at OpenAI, Sandia National Labs, and Salesforce.
Highlights along the way: led PARC's Fittle behavior-change platform from concept to commercialization; Co-PI and technical lead on four DARPA programs including Explainable AI; tenured associate professor at UNC Charlotte, where I co-founded the Game Design & Development programs and mentored 11 senior design and studio teams; chief scientist of the NSF-funded MavHome smart home; 3G base station software still in service from my Motorola years; and eight years enlisted in the Navy's nuclear program, finishing as an Engine Room Supervisor and lead shipboard instructor.
Away from the keyboard I serve on the board of a rural water association near Cloudcroft, volunteer as a projectionist at southern New Mexico's only art-house cinema, and work as a furnace glass artist, trained in Murano, Italy.
I study artificial intelligence (AI) in contact with the people who have to live with it. For thirty years my research has followed one rule: a system is not finished until it survives its users. That rule has taken me from a smart home that learned its inhabitants’ routines, to mobile health coaching that ran pilot studies with more than a thousand people and shipped as a commercial product, to autonomous drones that had to explain themselves to the people responsible for them, to a document-intelligence platform now in production with European government agencies. The questions have changed over three decades. The stance has not: build intelligent systems with people in the loop, deploy them for real, and study what actually happens.
The record
My research identity was formed on deployed systems. As chief scientist of the National Science Foundation (NSF)-funded MavHome project at UT Arlington, I turned data-driven generation of hierarchical partially observable Markov decision processes into a working, learning smart home, coordinating seven to eight researchers across teams led by five professors. As a professor at UNC Charlotte, I directed the Game Intelligence Group in interactive AI for games and simulation: behavior-based control, spatial reasoning and navigation representations, and machine learning from player data, producing 66 peer-reviewed papers with a group whose core was six to eight students. At PARC (the Palo Alto Research Center), I led the Fittle behavior-change platform from concept through more than fifty month-long build cycles and eight pilot studies with 1,200+ users to commercialization, and served as Co-Principal Investigator (Co-PI) and technical lead on four DARPA programs. The eXplainable AI (XAI) program’s COGLE project remains the deepest of these: we built systems that explained a drone’s decisions to the humans accountable for its missions, work reported in Applied AI Letters and carried into a 2026 U.S. patent on coordinated agent learning and explanation. Sixteen patent families, nine granted U.S. patents, and more than $29M in sponsored research as PI or Co-PI trace the same arc: research that leaves the lab.
Today, as Chief Scientist at Filuta AI, I direct the research behind a document-intelligence platform that turns large, heterogeneous document collections into searchable knowledge with full audit provenance. Our automated-planning research runs against real products: planning-based regression testing of video games, learning planning action models from state traces, and evaluating large language models as translators from natural-language goals to the Planning Domain Definition Language (PDDL), published at KR, ICAPS, and IJCAI venues with the Filuta team.
The question I want to spend the next decade on
What happens to engineering, engineers, and engineering education when AI stops being a tool and becomes a collaborator? I watch this transition daily from inside a working AI lab. The interesting problems are not in the models. They are in the humans and the teams around the models: how work divides when one teammate is a machine, how trust gets calibrated, who verifies what, and what a young engineer must now learn that their curriculum does not yet teach. I intend to study this transition where it is happening, with the people it is happening to, and my research program has three connected threads.
Engineering teams with AI teammates. Student engineering teams are the ideal observatory for this transition: real projects, real deadlines, and members encountering AI collaboration for the first time, with their practices still forming. I want to instrument that encounter. How do teams divide labor with AI agents in the loop? When do students accept generated work, and what makes them check it? Which roles disappear, and which new ones appear? The output is empirical: observed practices, measurable trust and verification behaviors, and curriculum that teaches judgment for an era when generation is cheap and responsibility is not. My studio-teaching and capstone-mentorship record, eleven interdisciplinary teams shipping working systems through public demonstration days, is the methodological foundation for this thread.
Formal scaffolding between human intent and machine execution. When an AI collaborator does the building, the specification becomes the contract. My planning research points directly at this: representations like PDDL, and the neurosymbolic and composite-AI architectures behind Filuta AI products, are exactly the kind of formal middle ground where human intent becomes checkable machine work. I will continue this line, extending action-model learning and language-to-specification translation, because it is both a live research area and the infrastructure the first thread needs: teams collaborate best with machines through artifacts both can verify. This work is publishable at ICAPS, KR, and IJCAI, and it generates systems that students at every level can build, break, and study.
Explanation as an engineering artifact. COGLE taught me that explanation is not a courtesy feature; it is the evidence an accountable human needs before signing their name. As AI moves into engineering teams, explanation becomes code review, becomes test evidence, becomes safety culture. What must an AI collaborator show an engineer to justify acceptance of its work? I come to this question with a specific formation: eight years in the Navy’s nuclear program, where the documentation is the operation and no one signs what they cannot defend. Bringing that qualification culture to human-AI engineering practice is, I believe, the most consequential thread of the three.
How I work, and with whom
My method is to build real systems, deploy them with real users, and measure, combining systems research with the formal user-experience and product evaluation practice I ran in industry. Students are co-investigators at every level: I have supervised 26 NSF Research Experiences for Undergraduates students, six industrial interns, two postdocs, and graduated doctoral students now at OpenAI, Sandia National Laboratories, and Salesforce. My final doctoral student completed a nationally competitive dissertation while employed full-time, and advising students on their terms remains the model I value. I publish where the threads live: planning and knowledge-representation venues, interactive-AI venues, and computing-education venues for the curriculum results.
On funding, my record and my intentions are the same: I have helped win and execute more than $29M in sponsored research from DARPA, NSF, the National Institutes of Health, the Naval Research Laboratory, and industry, most often as the Co-PI and technical execution lead who delivers the program against its milestones. I partner well with colleagues who own a program vision, I bring the delivery record and the industry network that sponsors trust, and my sponsor-side experience means I also know what keeps an industrial partner engaged with a student project. Education-focused programs, industry-sponsored projects, and collaborative proposals fit both this agenda and how I do my best work. I am building for a ten-year horizon.
Thirty years ago I maintained the robots in the lab I would later help lead. The through-line from there to here is short: intelligent systems are interesting to me exactly where they meet the people who must rely on them. The next decade of that meeting happens in engineering teams and engineering classrooms, and that is where I want to do the work.
Sixteen externally funded research projects, 2004–2027, totaling approximately $29.3M (USD equivalent): $25,537,137 at PARC / Xerox, $1,035,542 at UNC Charlotte, $755,500 at UT Arlington, and ∼$1,977,963 at Filuta AI (42.57M Kˇc total project cost). Sponsors span DARPA (I2O, DSO, IPTO), NSF, NIH, NRL, the Czech TWIST Programme, and industry. Roles: PI on five awards; Co-PI and technical execution lead on ten. Responsible for team delivery against program milestones; Senior Researcher & Project Manager on the current TWIST award.
In addition to these external awards, I directed a sustained average of 2.5 internally funded research FTEs at PARC over roughly a decade. At a fully burdened rate of approximately $400K per person-year, about $10M of internally funded research, bringing total directed research funding to approximately $39M. Separately, I served in funded leadership roles without PI/Co-PI credit on major sponsored projects including the NSF MavHome smart home project ($4M) and the NSF WISE project at UT Arlington, and the Xerox HR Services / Buck Consultants commercialization of Fittle; those project values are noted for completeness and are not counted in the totals above.
Projects are listed newest first. Amounts are as awarded; two PARC awards include the listed institutional match.
Self-Service AI Planning Agents (“Samoobslužní AI plánovací agenti”)
Role: Senior Researcher & Project Manager
PI: Filip Dvoˇrák (Filuta AI) and Roman Barták (Charles University)
Team: Filuta AI CZ s.r.o. (lead applicant) and the Faculty of Mathematics and Physics, Charles University (MFF
UK), Prague
Sponsor: TWIST Programme, Czech Republic
Amount: 42,570,710 Kˇc total project cost (∼USD $1,977,963), 69.25% grant-funded — Filuta AI 36,790,550 Kˇc
(∼$1,709,399); MFF UK 5,780,160 Kˇc (∼$268,564)
Period: 9/2025 – 8/2027 (Filuta AI)
DARPA Computational Cultural Understanding (CCU) — MAKSIMUS: Mixed Architectures and Knowledge Structures for Inferring, Mastering, and Understanding Sociocultural Norms
Role: Co-PI
PI: Leora Morgenstern (PARC)
Team: Co-PIs: Matthew Shreve, Michael Youngblood (PARC); Dan Goldwasser (Purdue); Yair Neuman
(Ben-Gurion)
Sponsor: DARPA I2O (PM: William Corvey)
Amount: $5,997,259
Period: 3/2022 – 2/2026 (PARC)
DARPA Perceptually-enabled Task Guidance (PTG) — AMIGOS: Autonomous Multimodal Ingestion for Goal-Oriented Support
Role: Co-PI
PI: Charlie Ortiz (PARC)
Team: Co-PIs: Matthew Shreve, Bob Price, Ed Stabler, Michael Youngblood (PARC); Xifeng Yan (UCSB); Kristina
Yordanova (U. Rostock); Patrick O’Shaughnessy (Patched Reality)
Sponsor: DARPA I2O (PM: Bruce Draper)
Amount: $5,852,523 + $1,300,000 PARC match = $7,152,523
Period: 11/2021 – 10/2025 (PARC)
DARPA AIE COnstructive Machine-learning Battles with Adversary Tactics (COMBAT) — CHARGE: Conflict-resolving Hierarchical Adversarial planneR Guided by Extracted text
Role: Co-PI
PI: Roni Stern (PARC)
Team: Co-PIs: Leora Morgenstern, Michael Youngblood, Peter Patel-Schneider (PARC)
Sponsor: DARPA DSO (PM: Paul Zablocky)
Amount: $999,845
Period: 9/2020 – 3/2022 (PARC)
DARPA Explainable AI (XAI) — COGLE: COmmon Ground Learning and Explanation
Role: Co-PI
PI: Mark Stefik (PARC)
Team: Co-PIs: Michael Youngblood (PARC); Peter Pirolli (IHMC); Christian Lebiere (CMU); Ram Ramamoorthy
(Edinburgh); Honglak Lee (U. Michigan)
Sponsor: DARPA I2O (PMs: Dave Gunning, Matt Turek)
Amount: $7,331,193 + $800,000 PARC match = $8,131,193
Period: 5/2016 – 3/2021 (PARC)
Personalized Health Behavior System to Promote Well-Being in Older Adults (NIH R01)
Role: Co-PI
PI: Sara Czaja (University of Miami Miller School of Medicine)
Team: Co-PIs: Peter Pirolli, Michael Youngblood (PARC)
Sponsor: National Institutes of Health (NIH)
Amount: $2,025,247
Period: 3/2016 – 2/2020 (PARC)
SCH: INT: Collaborative Research — FITTLE+: Theory and Models for Smartphone Ecological
Momentary Intervention
Role: Co-PI
PI: Peter Pirolli (PARC)
Team: Collaborative institution: Carnegie Mellon University (Bob Kraut)
Sponsor: NSF–NIH Smart and Connected Health
Amount: $1,231,070
Period: 10/2013 – 9/2017 (PARC)
TUES: Building BRIDGES Within the Undergraduate Major in Computer Science
Role: Co-PI
PI: K.R. Subramanian (UNC Charlotte)
Team: Co-PIs: Michael Youngblood, Robert Kosara, Jamie Payton, Paula Goolkasian
Sponsor: National Science Foundation (NSF)
Amount: $250,000
Period: 6/2013 – 8/2015 (UNC Charlotte)
Growing Greener
Role: Co-PI
PI: Tiffany Barnes (UNC Charlotte)
Team: Co-PIs: Michael Youngblood, Heather Lipford
Sponsor: Corporate sponsor (NDA restricts disclosure)
Amount: $178,000
Period: 2/2011 – 8/2011 (UNC Charlotte)
Automated Navigation Mesh Creation in Procedurally-Generated Worlds
Role: PI
PI: Michael Youngblood (UNC Charlotte)
Team: Summer international research embedded with Gamr7 in Roanne, France, with doctoral student D.
Hunter Hale
Sponsor: NSF PIRE (through Florida International University)
Amount: $14,000
Period: 5/2011 – 8/2011 (UNC Charlotte)
Digital Kennedy LoRez Wall
Role: PI
PI: Michael Youngblood (UNC Charlotte)
Sponsor: UNC Charlotte Office of Information Technology (CIO Jay Dominick)
Amount: $28,000
Period: 5/2010 – 5/2011 (UNC Charlotte)
DARPA Computer Science Study Group, Phase 2
Role: PI
PI: Michael Youngblood (UNC Charlotte)
Sponsor: DARPA DSO (PM: Ben Mann)
Amount: $488,862
Period: 5/2008 – 5/2010 (UNC Charlotte)
DARPA Computer Science Study Group, Phase 1
Role: PI
PI: Michael Youngblood (UNC Charlotte)
Sponsor: DARPA DSO (PM: Ben Mann)
Amount: $76,680
Period: 4/2007 – 4/2008 (UNC Charlotte)
Transfer Learning in Integrated Cognitive Systems
Role: Co-PI
PI: Larry Holder (UT Arlington)
Team: Co-PIs: Michael Youngblood, Diane Cook, Manfred Huber
Sponsor: DARPA Transfer Learning Program (IPTO, PM: Ted Senator), subcontract via the Institute for the Study of
Learning and Expertise (ISLE)
Amount: $620,000
Period: 10/2005 – 10/2006 (UT Arlington)
Autonomous Vehicles Lab Activity Support Grant
Role: Co-PI
PI: Atilla Dogan (UT Arlington)
Team: Co-PIs: Brian Huff, Arthur Reyes, Kamesh Subbarao, Michael Youngblood
Sponsor: Bell Helicopter–Textron
Amount: $60,000
Period: 1/2006 – 12/2006 (UT Arlington)
Integration of a Cognitive Architecture and an Urban Warfare Simulator for the Evaluation of AI
Methods
Role: Co-PI
PI: Larry Holder (UT Arlington)
Team: Co-PI: Michael Youngblood
Sponsor: Naval Research Laboratory (BAA 55-03-02, PM: David Aha)
Amount: $75,500
Period: 9/2004 – 8/2005 (UT Arlington)
My Erdős number is 4, Berners-Lee number is 3, Edsger W. Dijkstra number is 4, and other distances can be found on . . .