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Where the course fits in a systems engineering curriculum
The AI-Augmented Systems Engineering lectures are an overlay on a standard graduate systems-engineering curriculum. The systems-engineering method is the foundation; the treatment of AI as both a tool and a component is what this course adds. This page maps the lectures onto one publicly documented program — the Master of Science in Systems Engineering at Southern Methodist University (SMU) — as a worked example.
Common ground
Both this course and a graduate systems-engineering program build on the same body of practice from the International Council on Systems Engineering (INCOSE). SMU’s M.S. in Systems Engineering is offered through the Department of Operations Research and Engineering Management (OREM) in the Lyle School of Engineering, and is recognized by INCOSE through its Academic Equivalency program — a route toward the Certified Systems Engineering Professional (CSEP) credential. Program details are on the SMU Lyle M.S. in Systems Engineering page.
Because the shared foundation is INCOSE practice, the lectures line up cleanly with the standard graduate courses. The alignment below is illustrative, not a transfer-credit claim.
Mapping the lectures
The left column lists core courses and areas in a graduate systems-engineering program; the right columns show which lectures cover the same ground.
| Graduate course or area | Lectures | Shared topics |
|---|---|---|
| Systems Engineering Process (OREM 7301) | 1–2 | The discipline and economics of systems engineering; lifecycle models, the Vee, and the ISO/IEC/IEEE 15288 processes. |
| Systems Engineering Design (OREM 7311) | 3, 4, 5, 6, 14 | Requirements and the concept of operations; architecture and function allocation; model-based systems engineering; trade studies; integration and test. |
| Systems Engineering Planning and Management (OREM 7321) | 8, 11, 12 | Technical reviews and audits; work breakdown, earned value, and technical performance measures; certification and assurance evidence. |
| Integrated Risk Management | 10 | Risk identification, analysis, handling, and monitoring across the lifecycle, including risks specific to learned components. |
| Systems Reliability Engineering | 9 | Reliability, availability, and maintainability; fault tolerance and graceful degradation. |
| Analytical methods and human factors | 7, 13 | Graph-theoretic system analysis (design-structure matrices, critical paths); human-systems integration and the limits of automation. |
| Capstone and synthesis | 15 | An end-to-end systems-engineering treatment of one system, defended under questioning. |
Course numbers and titles are from the SMU Lyle program page and the SMU course catalog. Programs revise their catalogs; check the source for the current list.
What this course adds
A standard curriculum teaches the systems-engineering method. This course applies that method to a system that contains a learned, probabilistic component, and adds material that a traditional program does not yet cover:
- Specifying a learned component by its performance envelope and operational design domain, rather than by a closed-form function.
- Allocating function among human, classical-algorithmic, and AI/ML elements, and justifying the residual human role.
- Verifying and assuring probabilistic components — statistical test coverage, monitoring, and claim-argument-evidence assurance cases.
- Treating AI as a tool that raises the engineer’s altitude from implementor toward systems engineer, and managing the complexity that faster output creates.
- Agentic AI workflows and the structural limits they do not remove.
Read as a pairing: a graduate program supplies the systems-engineering foundation, and these lectures apply it to AI-augmented systems.
A note on independence
The FPGA Professional Association is independent. It is not affiliated with, endorsed by, or sponsored by Southern Methodist University or INCOSE. SMU’s program is referenced here only because it is a well-documented, publicly listed example of a graduate systems-engineering curriculum; any accredited program grounded in INCOSE practice would map similarly.