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About · The Full Story

Twenty Years of Getting the Model Right.

The career arc from math teacher to Teledyne Brown to Booz Allen to running my own firm to MITRE chief analyst to aerospace prime — and why every step was building toward this.

A Career in Two Worlds

For over twenty years, I've built models that people use to make high-stakes decisions — not in a research lab optimizing benchmarks, but in the field, where the model has to be good enough for someone to stake resources, missions, and sometimes lives on the answer it produces. That constraint changes everything about how you think about modeling.

The formative chapter was at MITRE's Cross-Cutting Urgent Innovation Cell (CUIC), where I served as Chief Analyst. CUIC existed to solve problems that cut across the entire Department of Defense — the ones that didn't fit neatly into a single service or agency. Multi-domain effects chain analysis. Kill-chain modeling. Architecture-level trade studies that had to integrate sensors, platforms, networks, and decision timelines into a single coherent picture. Every one of these was a world model: a simplified but faithful representation of a complex system, built to answer a question that mattered.

That's where I developed Analysis Driven Modeling: the analysis question determines which model to build, at what fidelity, with which metrics. Not "here's a model, let's find a question for it." The question always comes first.

Before MITRE, I spent seven years running my own firm. That experience taught me things you can't learn inside a large organization — finding clients, winning contracts, managing subs, delivering results, and keeping the lights on all at the same time. I learned what it means to deliver for clients who can't afford to wait for a 200-page report that arrives six months late. When you are the firm, the model has to work, the briefing has to land, and the invoice has to be justified. That kind of accountability shapes how you approach every engagement.

Now the AI revolution is discovering what the modeling and simulation community learned decades ago: the hardest part of building a world model isn't the model itself. It's knowing how good the model needs to be for the decision it's supposed to support. The AI field is learning to build world models automatically from data, and it's learning (often painfully) that a model that's impressively complex but not validated against the right metrics is worse than useless — it's dangerous. It creates false confidence. The fidelity question isn't new. What's new is that a generation of AI practitioners is running into it for the first time.

There aren't many people who've spent twenty years validating physics-based simulations and also work with neural networks and reinforcement learning. That's where I ended up.

The defense M&S community has deep expertise in model validation, uncertainty quantification, and fidelity trade-offs, but most of its practitioners haven't crossed into neural networks, reinforcement learning, or physics-informed machine learning. On the other side, the AI community has extraordinary tools for learning from data — but most have never built a physics-based simulation or dealt with the V&V frameworks that the simulation world spent decades developing. Right Fidelity AI sits in the gap between those two worlds, and I think that gap is where some of the most important work is going to happen.

For larger engagements, I draw on a professional network of modeling, simulation, and analysis practitioners I've worked with across two decades in defense and aerospace — people I know, trust, and have delivered alongside. I also use generative AI to accelerate research, analysis, and development work that would traditionally require a larger team. I can bring in the right people when the project needs them, without carrying a payroll when it doesn't.

The Full Track Record
A career building models across defense, aerospace, intelligence, and education. Every role added something different, but the through-line is the same.
  1. Major Aerospace Prime — Space Division
    Senior Analyst, Space Systems
    Mission analysis and simulation for next-generation space systems. Trajectory optimization, mission design, and AI integration for space operations. Applying the same fidelity rigor to orbital mechanics and sensor physics that was developed for multi-domain defense analysis.
    The Model: orbital mechanics, sensor physics, decision-support systems
    Space systems analysis AI integration research Current
  2. The MITRE Corporation — CUIC
    Chief Analyst, Cross-Cutting Urgent Innovation Cell
    Led multi-domain analysis teams solving problems that cut across the entire Department of Defense. Effects chain modeling, architecture trade studies, and kill-chain analysis using AFSIM and custom simulation tools. Managed 20+ analysts across concurrent studies. Developed the Analysis Driven Modeling methodology: the analysis question determines the model, not the other way around.
    The Model: multi-domain operations, effects chains, architecture-level trade spaces
    20+ analysts managed DoD-wide studies ADM methodology created
  3. Independent Defense Consulting Firm
    Owner & Principal Analyst
    Founded and operated an independent defense analytics firm for seven years, delivering threat analysis, simulation, and systems engineering through subcontract and consulting work with MIT Lincoln Laboratory, CSC, Torch Technologies, and L-3 Coleman Aerospace.
    • MDA (longest engagement): threat engineering, architecture-level BMDS analysis briefed to MDA leadership, trajectory and signature modeling validated against intelligence benchmarks
    • JIEDDO: lead systems engineer for a counter-IED program; lead author on the system requirements document for a cognitive signature-matching system
    • Additional sponsors: ARDEC, AMCOM, NRL
    The Model: threat trajectories, missile signatures, BMDS architecture, counter-IED systems
    MDA, ARDEC, AMCOM, NRL, JIEDDO Multiple performance awards 7 years as business owner
  4. Booz Allen Hamilton
    Program Manager & Data Analyst
    Program management and quantitative analysis for defense and intelligence community clients. Statistical modeling, data visualization, and decision-support tools. First exposure to the scale at which large organizations consume analytic products, and how often the model is fine but the communication fails.
    The Model: statistical models, decision-support analytics
    IC and DoD programs Statistical modeling
  5. Teledyne Brown Engineering
    Defense Analyst
    First exposure to defense modeling and simulation. Missile defense analysis, trajectory modeling, and physics-based simulation at one of Huntsville's premier defense engineering firms. The transition from teaching to defense analysis, where the models have to be right because the consequences are real.
    The Model: missile trajectories, physics-based defense simulations
    Missile defense analysis Entry to defense M&S
  6. Math Teacher
    8th Grade · Community College · Professional Tutoring
    Started as a math teacher (8th grade, community college, professional tutoring). Teaching taught the most important consulting skill there is: making sure the person across the table actually understands what you're telling them and can act on it. That skill has mattered more than any technical credential in every role since.
    The Model: pedagogical models of student understanding
    Foundation in education Communication as a core skill
Qualifications & Background
Degrees, clearances, and technical background.
MS Applied Mathematics, UNC Wilmington
Fluid Dynamics, Probability & Statistics
BA Physics · BS Mathematics, UNC Wilmington
Mathematical Physics & Operations Research
Chief Analyst, MITRE CUIC
Cross-cutting national security analysis across the Department of Defense
7 Years as Business Owner
Independent defense consulting firm — built from scratch, delivered for DoD sponsors
Active Security Clearance
Former Math Teacher
Middle school, community college, professional tutoring — the foundation of clear communication

The Teaching Thread

I taught 8th grade math and community college algebra before I ever built a simulation, and I was tutoring struggling students one-on-one before I ever briefed a general. That sequence isn't a detour. It's the foundation everything else was built on.

Teaching teaches you something that most technical careers never force you to confront: it doesn't matter how right your answer is if the person across the table can't act on it. An 8th grader who doesn't understand your explanation of fractions doesn't politely nod and move on. They stare at you, confused, and you have to find another way in. That's a skill. And it transfers directly to defense consulting, to executive briefings, to client deliverables — every situation where the value of the analysis depends on whether the decision-maker can use it.

Most defense consultants produce 200-page reports that sit on shelves. The analysis is often sound. The problem is communication. Teaching taught me a different approach: make it clear enough that they can act on it — and remember it. If the client can't explain your finding to their boss without your help, you haven't finished the job. That classroom experience is baked into everything I do now — the briefings, the models, the deliverables. The only metric that mattered in a classroom was whether the student actually learned, and that's still the standard I hold myself to.

This is also why the long-term vision for Right Fidelity AI includes education as a moonshot domain. The belief that simulation and AI methods can transform how students learn isn't abstract positioning. It comes from years of direct experience with how learning actually works, and how often the tools available to teachers fail them.

Tools & Methods
The technical stack behind a career in modeling, from defense simulation suites to modern AI frameworks.

Simulation

  • AFSIM
  • STK
  • STAMP
  • POST II
  • DICE
  • TGx

Programming

  • Python
  • MATLAB
  • SQL
  • PyTorch
  • TensorFlow
  • JavaScript

Methods

  • Monte Carlo
  • Reinforcement Learning
  • Bayesian Inference
  • Optimization
  • Statistical Analysis
  • Uncertainty Quantification

Visualization

  • Interactive Dashboards
  • 2D/3D Graphics
  • Data Visualization
  • Canvas API

What Drives This

Everything I'm building toward comes back to one conviction: the same rigor that validates a satellite orbit model should eventually help a teacher figure out what a student needs next. That comes from years in classrooms and years watching simulation science transform decision-making in national security. The technical stuff actually transfers — the uncertainty quantification that validates a space mission model can validate a clinical decision-support system. The long-term vision is to take what works in defense and aim it at education and healthcare — the kinds of decisions where imperfect information has real consequences for real people.

Ready to Work Together?

I've spent a career learning how to ask the right question, build the right model, and make the answer useful. If you've got a problem where that matters, I'd like to hear about it.

michael@rightfidelity.ai  ·  Washington, D.C. Metro