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Simulating a Quadcopter's Flight

Brian Neiswander, Nikola Trica, Ali Nejad, Sam Turton, Teresa Hubscher-Younger, and Tianyi Zhu

Welcome to Modeling the Quadcopter Airframe, the second course in the Engineering Design and Simulation Program. In this course, you will gain the skills to model the mechanical subsystems, analyze flight dynamics, and refine your designs using simulations.

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Welcome to Modeling the Quadcopter Airframe, the second course in the Engineering Design and Simulation Program. In this course, you will gain the skills to model the mechanical subsystems, analyze flight dynamics, and refine your designs using simulations.

Building upon the foundation established in the first course of the program, this course focuses on breaking down the complex quadcopter system into smaller, more manageable subsystems. You will learn the mechanical part of the quadcopter, known as the airframe subsystem, and simulate its flight behavior. You will model free-body diagrams and mathematical equations into block diagrams through a step-by-step approach, enabling a detailed analysis of the quadcopter’s flight dynamics. To accurately represent the physical system and model the mathematical equations involved in the quadcopter’s motion, you will utilize Simulink and Simscape, powerful tools used in industry for modeling physical systems.

To reinforce your learning, you will have the chance to practice your skills with an additional project. You will model the car's suspension system and analyze the effects of changing passenger loads on the ride quality under various road conditions. This practical application will further enhance your modeling and analysis skills.

By the end of this course, you will balance the upward thrust of the propellers against the downward force of gravity to see your quadcopter take flight.

No prior modeling experience is required. Simulink and Simscape, industry-leading block diagram environments, are used throughout the courses to teach fundamental modeling workflows. You will be provided with a free license for the duration of the program.

What's inside

Learning objectives

  • How to model the mechanical component
  • How to simulate and test the mechanical subsystem
  • How to analyze flight dynamics
  • How to refine a quadcopter simulation

Good to know

Know what's good
, what to watch for
, and possible dealbreakers
Suitable for students new to modeling
Provides a balance of theory and practical application
Uses industry-leading Simulink and Simscape for modeling
No prior modeling experience required
Develops fundamental modeling workflows
Builds a strong foundation for beginners

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Activities

Coming soon We're preparing activities for Simulating a Quadcopter's Flight. These are activities you can do either before, during, or after a course.

Career center

Learners who complete Simulating a Quadcopter's Flight will develop knowledge and skills that may be useful to these careers:
Simulation Engineer
Simulation Engineers use computer simulation to design and test products and systems.
Mechanical Engineer
Mechanical Engineers design and develop machines and other mechanical devices. This course may be useful because it helps build a foundation in modeling the mechanical component of a quadcopter airframe, simulating and testing the mechanical subsystem, and analyzing flight dynamics. These are all skills which transfer directly to the work done by Mechanical Engineers.
Robotics Engineer
Robotics Engineers design and develop robots, which are automated machines that can perform a variety of tasks.
Mechatronics Engineer
Mechatronics Engineers combine electrical and mechanical engineering with computer science to design, develop, and maintain intelligent machines.
Aerospace Engineer
Aerospace Engineers utilize their knowledge of aircraft and spacecraft to design, develop, test, and manage new technologies. Simulating a Quadcopter's Flight may be useful for gaining foundational knowledge about the motion and dynamics of aircraft. Simulink and Simscape are used in the course to model physical systems, including the quadcopter's airframe. Aerospace Engineers use these same tools.
Systems Engineer
Systems Engineers design, develop, and maintain complex systems, such as aircraft, spacecraft, and power plants.
Automotive Engineer
Automotive Engineers apply engineering design, analysis, and testing knowledge to develop and improve automobiles, engines, and related components.
Safety Engineer
Safety Engineers design and implement safety programs.
Software Engineer
Software Engineers design, develop, and maintain software systems.
Reliability Engineer
Reliability Engineers design and implement reliability programs.
Electrical Engineer
Electrical Engineers design and develop electrical and electronic systems, including hardware and software. A course on Simulating a Quadcopter's Flight could help prepare one for this role by teaching design, analysis, and refinement of electrical systems, and how to analyze their flight dynamics in a way that's generalizable to other electrical systems.
Manufacturing Engineer
Manufacturing Engineers oversee the design, planning, and implementation of production processes.
Test Engineer
Test Engineers design and conduct tests to ensure that products and systems meet specifications.
Quality Engineer
Quality Engineers design and implement quality control and quality assurance processes.
Transportation Engineer
Transportation Engineers plan, design, and operate transportation systems.

Reading list

We've selected eight books that we think will supplement your learning. Use these to develop background knowledge, enrich your coursework, and gain a deeper understanding of the topics covered in Simulating a Quadcopter's Flight.
Provides a useful overview of classical and modern aircraft control. Introduces modern methods such as nonlinear control techniques and adaptive control.
This renowned reference book on aerospace vehicle dynamics presents a thorough treatment of the topic. Useful as supplemental reading.
Is useful for understanding helicopter aerodynamics and dynamics, which is helpful as a background for studying the aerodynamics of quadcopters.
A standard textbook in control engineering. Deals with the principles and design of feedback control systems, and is useful as a background reference.
For those with a very strong background in aerodynamics and who are interested in learning more deeply about the flight dynamics of manned aircraft.
Although this course doesn't cover optimal control in any detail, this book serves as a resource for readers who want to learn more.

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