
Downloading the assignments, and getting Python ready for the course
Please complete this assignment as it will test that FlightGear and Python are interacting properly. I strongly suggest completing Lectures 1 to 3 and this assignment, before committing to the course.
Define frames of reference and compare earth-centered earth fixed (ecef) and earth-centered inertial (eci) frames. Explain how the WGS 84 ellipsoid geometry underpins gps positioning and lat/long conversions.
Learn how optimization minimizes resources via objective functions, constraints, and variables; examine cost function, unconstrained solutions, solvers, and quadratic optimization in MPC.
Explore the model predictive control framework that links the flight controller, MPC optimizer, and aircraft dynamics model to generate inputs and assess performance.
Please see paper.pdf for my research results from the lateral flight dynamics study
Thank you for completing my course!
Important Note:
Please go through the first 3 free videos and Assignment 0 to setup Python and FlightGear to be able to run your simulations. There are a lot of Python packages to install along with FlightGear aircraft and scenery. You are strongly suggested to have everything ready prior to committing to the course.
Assignment 0 is a test to ensure things are working smoothly - Please download it from GitHub: Vinayak-D, repo: AerospaceGNCUdemyCourse - see the course preview video or Lecture 3 (Configuring Python) for the download link.
Highlights:
Learn the basics of aircraft flight dynamics in six degrees of freedom (6-DOF) and model predictive control from practical examples.
Understand and apply the User Datagram Protocol (UDP) communication to build your own flight simulations using data sent to/from Python to FlightGear, a free open source flight simulator.
Complete 5 interactive assignments to strengthen your understanding of the subject matter.
Obtain thorough knowledge of the aircraft equations of motion, a required concept for jobs in the aerospace industry.
Learn how to build full 6-DOF simulations from limited information.
Description:
The aerospace industry is now at a critical phase. A lot of new technologies are being developed such as supersonic and hypersonic flight, new commercial reusable launch vehicles, as well as small aerial vehicles such as air taxis, drones, and similar machines for personal use.
This course serves as an introduction to flight dynamics for the absolute beginner.
Complex topics such as the aircraft equations of motion, how rotations can be mathematically represented, and the basics of flight simulations are introduced in a practical manner.
Case studies on flight control design using open source information from the F-16 aircraft are also presented.
This course introduces the topic of linear control theory, state space representation, and transfer functions.
Assignments 0 and 1 get you started with FlightGear and Python interacting together via the UDP protocol, and basic coordinate transforms to convert your 3D location to a point on a map.
You will learn quadratic optimization, a fundamental concept in control theory as well as machine learning for all industries ranging from tech to finance.
You will implement a quadratic optimization solver using Python in Assignment 2.
You will learn how to apply model predictive control for linear systems specifically for flight control applications through Assignments 3 and 4.
Finally, Assignment 5 ties everything together, you will visualize a full 6-DOF flight simulation in FlightGear!