AE 426Flight Dynamics
Semester 261
Course learning environment

Flight Dynamics,
one connected story.

Start with the course information, then move through the foundations and interactive lecture materials. Classroom and study resources will grow here throughout the semester.

About the instructor Dr. Ayman Abdallah Course developer and instructor Why rethink how Flight Dynamics is taught? →

Teaching Flight Dynamics as a connected model

Course developer and instructor — AE 426 Flight Dynamics

Flight Dynamics is often taught as a sequence of equations to derive, memorize, and apply. This course is being redesigned around a different idea: students should be able to see how the aircraft model is built, understand why each equation exists, test their predictions, and connect the mathematics to physical aircraft motion.

Dr. Ayman Abdallah is developing this AE 426 learning environment to combine the rigor of classical flight-mechanics texts with modern interactive instruction. The goal is not to replace the textbook, but to make the underlying reasoning more visible and more intuitive.

The course follows a recurring learning pattern:

Predict → Commit → Manipulate → Explain → Verify

Students are asked to form a physical expectation before calculation, commit to that expectation, interact with the model, explain what they observe, and then verify the result mathematically.

The broader objective is to move Flight Dynamics education from passive equation following toward model-based engineering reasoning—connecting reference frames, forces, moments, kinematics, nonlinear equations of motion, stability, control, and ultimately aircraft behavior as one coherent system.

This website and its interactive lessons are part of an ongoing effort to explore how engineering subjects such as Flight Dynamics can be taught with greater clarity, physical intuition, computational verification, and active student participation.

Course information

Start here

Semester structure, expectations, learning outcomes, assessment, schedule, resources, and support.

01 resource
M0 · Foundations

Course overview & modeling language

The semester story: aircraft motion, stability, dynamics, feedback, course resources, and the engineering workflow ahead.

01 lesson
M1 · Frames, Kinematics & Nonlinear Dynamics

Build the aircraft motion model

Move from coordinate descriptions and kinematics into the nonlinear equations that predict aircraft motion.

04 lessons
02Deployment link pending

Frames, Kinematics & the Language of Motion

Reference frames, body axes, motion variables, the 3–2–1 sequence, passive DCMs, and body rates versus Euler-coordinate rates.

Lecture link will appear here when deployed.
03Deployment link pending

From Kinematics to Translational Dynamics

Forces in a common frame, Newton’s second law, rotating-frame derivatives, transport-theorem coupling, body-axis translational equations, and gravity.

Lecture link will appear here when deployed.
04Deployment link pending

Rotational Dynamics, Moments & Aircraft Inertia

Angular momentum, aircraft inertia, applied moments, rotating-frame coupling, and the nonlinear rotational equations of motion.

Lecture link will appear here when deployed.
05Deployment link pending

Position & Navigation Kinematics

Ground-relative velocity, body-to-navigation mapping, NED position rates, wind distinction, and nonlinear-state assembly.

Lecture link will appear here when deployed.
Next

More M1 lessons will appear here

The course hub is intentionally incremental. New verified lessons can be released without changing the student entry URL.

Planned next: the remaining nonlinear rigid-aircraft equations and later course modules.