TY - CHAP
T1 - Fuzzy systems for modelling and control in aerial robotics
AU - Santoso, Fendy
AU - Garratt, Matthew A.
AU - Anavatti, Sreenatha G.
N1 - Publisher Copyright:
© 2018 Nova Science Publishers, Inc.
PY - 2018/1/1
Y1 - 2018/1/1
N2 - We discuss state-of-the-art modelling and control techniques in aerial robotics using fuzzy systems. Unlike traditional control techniques, whose performance is totally reliant on the availability of accurate mathematical models, fuzzy systems can work reliably in the absence of complex mathematical models. In addition, fuzzy systems can also be employed to accurately represent the dynamic behaviours of the plants. This will clearly be advantageous, especially for unmanned aerial vehicles, whose dynamics are very fast and highly non-linear, coupled with severe uncertainties (e.g., wind gusts, varying payloads, and operating points as well as unmodelled behaviours). In terms of aircraft platform, our focus is on the multicopter Unmanned Aerial Vehicles (UAVs), namely, the AR.Drone Quadcopter and the Tarrot 680 Hexacopter; mainly due to their robustness, safety, and suitability for human interactions as well as indoor applications. We compare the performance of our fuzzy control systems with respect to the accuracy of the conventional PID controllers. Our research highlights the efficacy of the proposed fuzzy systems for modelling and control in aerial robotics.
AB - We discuss state-of-the-art modelling and control techniques in aerial robotics using fuzzy systems. Unlike traditional control techniques, whose performance is totally reliant on the availability of accurate mathematical models, fuzzy systems can work reliably in the absence of complex mathematical models. In addition, fuzzy systems can also be employed to accurately represent the dynamic behaviours of the plants. This will clearly be advantageous, especially for unmanned aerial vehicles, whose dynamics are very fast and highly non-linear, coupled with severe uncertainties (e.g., wind gusts, varying payloads, and operating points as well as unmodelled behaviours). In terms of aircraft platform, our focus is on the multicopter Unmanned Aerial Vehicles (UAVs), namely, the AR.Drone Quadcopter and the Tarrot 680 Hexacopter; mainly due to their robustness, safety, and suitability for human interactions as well as indoor applications. We compare the performance of our fuzzy control systems with respect to the accuracy of the conventional PID controllers. Our research highlights the efficacy of the proposed fuzzy systems for modelling and control in aerial robotics.
KW - Fuzzy systems
KW - Modelling and control
KW - Multi-copter aerial robotics
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UR - https://novapublishers.com/shop/intelligent-marine-and-aerial-vehicles-theory-and-applications/
M3 - Chapter (peer-reviewed)
AN - SCOPUS:85077828482
SN - 9781536134469
T3 - Robotics Research and Technology
SP - 175
EP - 214
BT - Intelligent marine and aerial vehicles
A2 - Joo Er, Meng
A2 - , Ning Wang
A2 - Pratama, Mahardhika
A2 - Sharma, Sanjay
A2 - Lian, Zhichao
PB - Nova Science Publishers
ER -