《Design and Control practice of Multi-rotor aircraft》
This book is divided into two parts: the experimental platform and the experimental task, in which the experimental platform relies on the RflySim platform specially designed for this book. The RflySim platform uses the current advanced development concept "model-based development (Model-Based Design)" process to closely link multi-rotor aircraft, Pixhawk autopilot, and the MATLAB Simulink programming language. The experimental task includes eight experiments step by step: power system design, dynamic modeling, sensor calibration, filter design, attitude controller design, fixed-point position controller design, semi-autonomous control mode design and failure protection logic design. This book is suitable for readers who are interested in the design and control of drones, especially multi-rotor aircraft, and can also take some of the experiments of this book as a practical part of professional courses. Book purchase links:This,Online video course learning website:This
Catalogue | Courseware | Code |
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Lecture 01 _ Introduction to the cours | Readme | code |
Lecture 02 _ Experimental Platform Configuration | Readme | code |
Lecture 03 _ Use of experimental platforms | Readme | code |
Lecture 04 _ Introduction of experimental procedures | Readme | code |
Lecture 05 Experiment 1 Dynamic System Design Experiment | Readme | code |
Lecture 06 Experiment 2 Dynamic Modeling Experiment | Readme | code |
Lecture 07 Experiment 3 Sensor calibration experiment | Readme | code |
Lecture 08 Experiment 4 Filter Design Experiment | Readme | code |
Lecture 09 Experiment 5 Attitude Controller Design Experiment | Readme | code |
Lecture 10 Experiment 6 Fixed-point position controller design experiment | Readme | code |
Lecture 11 Experiment 7 Semi-autonomous control mode design experiment | Readme | code |
Lecture 12 Experiment 8 Failsafe Logic Design Experiment | Readme | code |